Changeset 6142 for branches/stable_5.0
- Timestamp:
- 15/08/09 12:21:41 (3 years ago)
- Location:
- branches/stable_5.0
- Files:
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- 148 modified
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ARBDB/Synchronized_Alignments.txt (modified) (3 diffs)
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Doxyfile (modified) (2 diffs)
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GDE/CLUSTALW/clustalw_help (modified) (1 diff)
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GDEHELP/HELP_PLAIN/CAP2.help (modified) (1 diff)
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HELP_SOURCE/Makefile (modified) (2 diffs)
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HELP_SOURCE/arb_help2xml.cxx (modified) (2 diffs)
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HELP_SOURCE/oldhelp/FAQS.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/Protection.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/ap_stack.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/arb.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/arb_db.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/arb_edit.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/arb_edit4.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/arb_gde.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/arb_intro.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/arb_pars.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/arb_pars_init.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/awt_csp.hlp (modified) (5 diffs)
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HELP_SOURCE/oldhelp/check_quality.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/checkgcg.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/commands.hlp (modified) (4 diffs)
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HELP_SOURCE/oldhelp/concatenate.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/cons_params.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/consensus_def.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/dist.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/e4.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/e4_block.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/e4_options.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/e4_replace.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/e4_search.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/extended.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/gde.hlp (modified) (8 diffs)
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HELP_SOURCE/oldhelp/gene_info.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/gene_search.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/gene_species.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/gene_species_field_transfer.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/glossary.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/helixsym.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/help.hlp (modified) (3 diffs)
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HELP_SOURCE/oldhelp/importift.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/max_freq.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/mg_names.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/mg_preserve.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/mg_spec_sel_field.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/mg_species.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/mod_field_list.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/mode_angle.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/mode_info.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/mode_move.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/mode_pzoom.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/mp_params.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/multiprobe.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/namesadmin.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/ne_compl.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/ne_pretty.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/ne_replace.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/next_neighbours.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/next_neighbours_common.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/nt_align_select.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/pa_bootstrap.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/pa_quick.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/pa_quick_sel.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/pa_ranchlengths.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/pars.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/parser.hlp (modified) (3 diffs)
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HELP_SOURCE/oldhelp/pd_spec_param.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/pfold.hlp (modified) (3 diffs)
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HELP_SOURCE/oldhelp/pfold_props.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/phyl.hlp (modified) (7 diffs)
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HELP_SOURCE/oldhelp/phylo.hlp (modified) (3 diffs)
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HELP_SOURCE/oldhelp/pos_var_pars.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/primer.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/probedesign.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/probedesignresult.hlp (modified) (3 diffs)
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HELP_SOURCE/oldhelp/probematch.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/prompt/format_alignments.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/proteinViewer.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/pt_server.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/rdp_ift.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/regexpr.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/rename.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/rna3d_dispBases.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/rna3d_dispHelices.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/rna3d_dispMolecule.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/rna3d_general.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/rna3d_mapSeqData.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/saiProbeHelp.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/saveas.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/savedef.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/search_duplicates.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/search_equal_fields.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/searching.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/sec_mode.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/sel_fil.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/sel_spec.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/seq_quality.hlp (modified) (3 diffs)
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HELP_SOURCE/oldhelp/sequence_colors.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/sp_search.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/spaf_delete.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/species_join.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/st_ml.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/tbl_scale.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/tkeep_mrkd.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/tr_type_irs.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/trans_anal.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/translate_dna_2_pro.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/tree2file.hlp (modified) (2 diffs)
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HELP_SOURCE/oldhelp/trm_del.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/undo.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/version.hlp (modified) (6 diffs)
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HELP_SOURCE/oldhelp/visualizeSAI.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/vn_search.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/vn_suggest.hlp (modified) (1 diff)
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HELP_SOURCE/oldhelp/write_field_list.hlp (modified) (1 diff)
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Makefile (modified) (5 diffs)
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PERL2ARB/DOC.html (modified) (10 diffs)
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arb_CHANGES.txt (modified) (3 diffs)
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arb_INSTALL.txt (modified) (1 diff)
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arb_LICENSE.txt (modified) (1 diff)
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arb_README.txt (modified) (1 diff)
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arb_UBUNTU.txt (modified) (1 diff)
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doc/a2ps.README (modified) (2 diffs)
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etc/files (modified) (1 diff)
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lib/pictures/RNA3D_Help.fig (modified) (2 diffs)
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lib/pictures/ad_ext.fig (modified) (1 diff)
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lib/pictures/arb_intro.fig (modified) (1 diff)
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lib/pictures/awt/col_statistic.fig (modified) (2 diffs)
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lib/pictures/awt/parser.fig (modified) (1 diff)
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lib/pictures/consensus/max_freq.fig (modified) (1 diff)
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lib/pictures/conservProfile2Gnuplot.fig (modified) (1 diff)
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lib/pictures/cpro/csp_2_gnuplot.fig (modified) (1 diff)
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lib/pictures/di_ge_ma.fig (modified) (1 diff)
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lib/pictures/edit4/search.fig (modified) (1 diff)
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lib/pictures/gde2item.fig (modified) (1 diff)
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lib/pictures/gde3item.fig (modified) (1 diff)
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lib/pictures/join_species.fig (modified) (1 diff)
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lib/pictures/merge/mg_mergetaggedfield.fig (modified) (1 diff)
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lib/pictures/pars/kernlin.fig (modified) (2 diffs)
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lib/pictures/pd_main.fig (modified) (1 diff)
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lib/pictures/seq_quality.fig (modified) (1 diff)
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lib/pictures/unused/findcorr/bc_fa.fig (modified) (1 diff)
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lib/pictures/unused/findcorr/bc_fat.fig (modified) (1 diff)
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lib/pictures/unused/findcorr/bc_verb.fig (modified) (2 diffs)
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lib/pictures/unused/findcorr/bc_verb2.fig (modified) (1 diff)
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lib/pictures/unused/logo.fig (modified) (1 diff)
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lib/pictures/visualizeSAI.fig (modified) (1 diff)
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util/arb_srclst.pl (modified) (1 diff)
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util/arb_test_compresssion (modified) (1 diff)
Legend:
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branches/stable_5.0/ARBDB/Synchronized_Alignments.txt
r5390 r6142 1 2 *** This is just a draft, it's not implemented *** 3 1 4 2 5 Automatic synchronization of DNA- and Protein-Alignments … … 18 21 sync_flag-value meaning 19 22 -------------------------------------------------------------------------------- 20 SYNC_NOT species should not be sync ronized (this is the default23 SYNC_NOT species should not be synchronized (this is the default 21 24 value in case of missing sync_flag). 22 25 … … 28 31 29 32 30 * If /species_data/species_xxx/ali_dna does not exist no sync ronization will be done33 * If /species_data/species_xxx/ali_dna does not exist no synchronization will be done 31 34 for this species!! 32 35 33 - Changed read/write-m achanism for synced alignments (this affects only .../ali_xx/data):36 - Changed read/write-mechanism for synchronized alignments (this affects only .../ali_xx/data): 34 37 35 38 * reading ali_dna/data: if sync_flag==SYNC_DNA => re-align; -
branches/stable_5.0/Doxyfile
r2529 r6142 160 160 SKIP_FUNCTION_MACROS = YES 161 161 #--------------------------------------------------------------------------- 162 # Configuration::add tions related to external references162 # Configuration::additions related to external references 163 163 #--------------------------------------------------------------------------- 164 164 TAGFILES = … … 187 187 DOT_CLEANUP = YES 188 188 #--------------------------------------------------------------------------- 189 # Configuration::add tions related to the search engine189 # Configuration::additions related to the search engine 190 190 #--------------------------------------------------------------------------- 191 191 SEARCHENGINE = NO -
branches/stable_5.0/GDE/CLUSTALW/clustalw_help
r1754 r6142 197 197 or sequences. This is done progressively, following the branching order in 198 198 the GUIDE TREE. The basic parameters to control this are two gap penalties and 199 the scores for various identical-non-i ndentical residues.199 the scores for various identical-non-identical residues. 200 200 201 201 1) and 2) The GAP PENALTIES are set by menu items 1 and 2. These control the -
branches/stable_5.0/GDEHELP/HELP_PLAIN/CAP2.help
r2248 r6142 156 156 157 157 Slight modifications by S. Smith on Mon Feb 17 10:18:34 EST 1992. 158 These changes allow for command line argu ements for several158 These changes allow for command line arguments for several 159 159 of the hard coded parameters, as well as a slight modification to 160 160 the output routine to support GDE format. Changes are commented -
branches/stable_5.0/HELP_SOURCE/Makefile
r5892 r6142 114 114 $(XML_LOCATION)/%.xml : $(HLP_SOURCE)/%.hlp $(DTD) 115 115 @test \! -f $(HLP_GENERATED)/$(<F) || \ 116 ( echo $<:1: exists twice -- only one exist ance allowed; \116 ( echo $<:1: exists twice -- only one existence allowed; \ 117 117 echo $(HLP_GENERATED)/$(<F):1: other occurrence \ 118 118 && false ) … … 122 122 $(XML_LOCATION)/%.xml : $(HLP_GENERATED)/%.hlp $(DTD) 123 123 @test \! -f $(HLP_SOURCE)/$(<F) || \ 124 ( echo $<:1: exists twice -- only one exist ance allowed; \124 ( echo $<:1: exists twice -- only one existence allowed; \ 125 125 echo $(HLP_SOURCE)/$(<F):1: other occurrence \ 126 126 && false ) -
branches/stable_5.0/HELP_SOURCE/arb_help2xml.cxx
r6132 r6142 1088 1088 link.add_attribute("source_line", source_line); 1089 1089 1090 if (type&(LT_HLP|LT_PDF|LT_PS)) { // other links (www, email) cannot be checked for exist ance here1090 if (type&(LT_HLP|LT_PDF|LT_PS)) { // other links (www, email) cannot be checked for existence here 1091 1091 string fullhelp = ((type<_HLP) ? locate_helpfile : locate_document)(dest); 1092 1092 if (fullhelp.empty()) { … … 1266 1266 } 1267 1267 catch (string& err) { 1268 ; // i ngore duplicated link in text1268 ; // ignore duplicated link in text 1269 1269 } 1270 1270 auto_references.push_back(Link(link_target, sec.StartLineno())); -
branches/stable_5.0/HELP_SOURCE/oldhelp/FAQS.hlp
r2986 r6142 31 31 32 32 33 QUESTION Finally, do you have a 23S alignment, that I could use? I have tr yed to33 QUESTION Finally, do you have a 23S alignment, that I could use? I have tried to 34 34 build my own, based on the sequences available from RDP. But that's only 34 35 35 sequences, and when I align my own 23S sequences against those, the computer -
branches/stable_5.0/HELP_SOURCE/oldhelp/Protection.hlp
r2986 r6142 15 15 DESCRIPTION An individual protection level (0 - 6) can be assigned to 16 16 all types of database entries (sequences and additional 17 information stored in the pa ticular 'field').17 information stored in the particular 'field'). 18 18 To modify any entries, a protection level has to be selected 19 19 from the 'Protection' menu of the main window equal or higher -
branches/stable_5.0/HELP_SOURCE/oldhelp/ap_stack.hlp
r2986 r6142 26 26 will be discarded. 27 27 28 NOTES The initial tree will be stored at program start up.28 NOTES The initial tree will be stored at program start-up. 29 29 30 30 When you restore the last tree from the tree stack it will be stored again automatically, -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb.hlp
r5711 r6142 108 108 109 109 Up to six hierarchical protection levels can be individually 110 as igned to database entries to prevent unintended modification110 assigned to database entries to prevent unintended modification 111 111 or loss of data. 112 112 … … 121 121 ARB tools and integrated foreign software (PHYLIP [4], DE SOETE 122 122 [1], fastDNAml [4]) allow calculation of similarity/distance 123 matrices, conservation profiles, selection masks and phylogen tic123 matrices, conservation profiles, selection masks and phylogenetic 124 124 tree reconstruction using different treeing approaches. 125 125 -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb_db.hlp
r2986 r6142 84 84 [gene_data] // container containing genes 85 85 86 extended::= // analog uous to species87 88 gene::= // analog uous to species86 extended::= // analogous to species 87 88 gene::= // analogous to species 89 89 90 90 ali_xxx::= 'data' // the sequence … … 97 97 alignment::= 'alignment_name' // name of the alignment (prefix 'ali_') 98 98 'alignment_len' // length of longest sequence 99 'alignment_write_security' // default write se querity99 'alignment_write_security' // default write security 100 100 'alignment_type' // dna or pro 101 101 'aligned' // ==1 when all sequences have the same -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb_edit.hlp
r4947 r6142 33 33 species' (see LINK{glossary.hlp}) and 'SAI' (sequence associated 34 34 information) data stored in the data base, and to insert 35 new data. Potential s condary structure is automatically checked35 new data. Potential secondary structure is automatically checked 36 36 and the information can be displayed with the primary structure. 37 37 Protection levels can be assigned to the sequences and 'SAI' … … 43 43 ARB tools are exported to the editor every 5 seconds. 44 44 45 Multiple editors can be used synchron uously.45 Multiple editors can be used synchronously. 46 46 47 47 -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb_edit4.hlp
r2531 r6142 29 29 Alternatively: 30 30 31 to load marked, all SAI's as well as seq eunces from31 to load marked, all SAI's as well as sequences from 32 32 a number of closest relatives as they are arranged and grouped in 33 33 the tree visualized in the ARB_NT main window select "Edit Marked -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb_gde.hlp
r2986 r6142 19 19 20 20 WARNINGS Some of the GDE tools are not available or do not run properly 21 blast/fasta require pro berly installed databases21 blast/fasta require properly installed databases 22 22 23 23 BUGS No bugs known -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb_intro.hlp
r5775 r6142 41 41 ARB databases stored in any directory with read and write 42 42 permission can be opened starting 'arb' from the current 43 directory. Find the path by suc essively selecting the43 directory. Find the path by successively selecting the 44 44 corresponding directories from the 'Existing Files and 45 45 Directories' subwindow. -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb_pars.hlp
r2986 r6142 60 60 61 61 Add all marked species to this tree. 62 No local rear angements are performed.62 No local rearrangements are performed. 63 63 If the species are already in the tree do 64 64 nothing. … … 75 75 Tree/add marked species: 76 76 77 Quick add plus local rear angements.77 Quick add plus local rearrangements. 78 78 79 79 Tree/add selected species: 80 80 81 Quick add sel. species plus local rear angements.81 Quick add sel. species plus local rearrangements. 82 82 83 83 Tree/Optimization/Local -
branches/stable_5.0/HELP_SOURCE/oldhelp/arb_pars_init.hlp
r2986 r6142 23 23 you only get a new window (with some action buttons). 24 24 25 WARNINGS You can only change filter settings at start up time.25 WARNINGS You can only change filter settings at start-up time. 26 26 You should use filters in combination with large databases 27 27 to speed up computation. … … 30 30 '.'. 31 31 32 BUGS All sequences are read at start up time. Sequence changes32 BUGS All sequences are read at start-up time. Sequence changes 33 33 afterwards are ignored. Restart arb_parsimony if you want 34 34 them to take effect. -
branches/stable_5.0/HELP_SOURCE/oldhelp/awt_csp.hlp
r2986 r6142 9 9 10 10 #************* Title of helpfile !! and start of real helpfile strunk******** 11 TITLE Estimate Parameters from Col oumn Statistics11 TITLE Estimate Parameters from Column Statistics 12 12 13 13 OCCURRENCE ARB_DIST 14 14 15 DESCRIPTION In a standar tRNA, base frequencies are not equally15 DESCRIPTION In a standard RNA, base frequencies are not equally 16 16 distributed. Especially in the archea subclass we find 17 17 extremely G+C rich sequences. … … 26 26 parts have a significant higher G+C content than non 27 27 helical parts. 28 One strait forward algor hythm would calculate each frequency29 independently for each col oumn.28 One strait forward algorithm would calculate each frequency 29 independently for each column. 30 30 Especially for small datasets the resulting frequencies would 31 31 look like random data, as too few examples are analyzed. … … 33 33 In ARB we implemented a combination of the 2 approaches. 34 34 Lets say we want to estimate a Parameter 'P' with 35 a maximum variance 'maxvar', so we need a min umum35 a maximum variance 'maxvar', so we need a minimum 36 36 samples 'minsap'. 37 37 … … 45 45 minimum of independent events. 46 46 47 - The final parameter estimate for a col oumn is a47 - The final parameter estimate for a column is a 48 48 weighted sum between the estimate for the 49 49 cluster and the estimate for the single position. 50 50 51 You can give your favo urite method a higher weight by52 controlling the smo thing parameter:51 You can give your favorite method a higher weight by 52 controlling the smoothing parameter: 53 53 54 54 Less smoothing -> independent parameter estimates … … 71 71 72 72 1. Much smoothing of parameters is selected and 73 2. you r are anlazing ribosomal RNA and73 2. you are analyzing ribosomal RNA and 74 74 3. 'Use Helix Information' is turned off 75 75 -
branches/stable_5.0/HELP_SOURCE/oldhelp/check_quality.hlp
r2986 r6142 13 13 OCCURRENCE ARB_NT 14 14 15 DESCRIPTION Takes sequences, a tree and a col oumn statistic as input,15 DESCRIPTION Takes sequences, a tree and a column statistic as input, 16 16 and generates a short sequence quality output string, which 17 17 will be stored into the database under a user defined key. -
branches/stable_5.0/HELP_SOURCE/oldhelp/checkgcg.hlp
r2986 r6142 13 13 OCCURRENCE ARB_NT/ETC/Check GCG List 14 14 15 DESCRIPTION !!!!! Curren lty no help available !!!!!!15 DESCRIPTION !!!!! Currently no help available !!!!!! 16 16 17 17 NOTES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/commands.hlp
r5726 r6142 191 191 extract_words("chars",val) 192 192 193 Search for all words (sep erated by ',' ';' ':' ' ' or 'tab') that193 Search for all words (separated by ',' ';' ':' ' ' or 'tab') that 194 194 contain more characters of type chars than val, sort them 195 alphabetically and write them sep erated by ' ' to the output196 197 STRING COMPAR ATION195 alphabetically and write them separated by ' ' to the output 196 197 STRING COMPARISON 198 198 199 199 compare(a,b) return -1 if a<b, 0 if a=b, 1 if a>b … … 218 218 The above functions work as binary operators (see below). 219 219 220 To avoid 'd evision by zero'-errors, the operators 'div', 'per_cent' and 'rest'220 To avoid 'division by zero'-errors, the operators 'div', 'per_cent' and 'rest' 221 221 return 0 if the second argument is zero. 222 222 … … 308 308 309 309 like extract_words, but do not sort words, but rel_len is the minimum 310 perc antage of characters of a word that mach a character in 'chars'311 before word is taken. All words will be sep erated by white space.310 percentage of characters of a word that mach a character in 'chars' 311 before word is taken. All words will be separated by white space. 312 312 313 313 taxonomy([treename,] depth) … … 442 442 443 443 In escapedCommand you have to escape '\' and '"' by 444 prece eding a '\'. If you nest calls you have to use multiple escapes444 preceding a '\'. If you nest calls you have to use multiple escapes 445 445 (e.g. inside an export filter - which is in fact an 446 446 SRT expression - you'll have to use double escapes). -
branches/stable_5.0/HELP_SOURCE/oldhelp/concatenate.hlp
r4112 r6142 11 11 TITLE CONCATENATION of ALIGNMENTS / SEQUENCES 12 12 13 DESCRIPTION With the help of concatenation function, one can cancatenate the aligned sequences, which are contained in the same species preserving the ALIGNMENT. 14 Before using concatenation function make sure that the species contains more than two aligned or unaligned sequences. 13 DESCRIPTION 15 14 16 Specify new name for the newly created concatenated alignment in the field "New Alignment Name" (Make sure that the new alignment name starts with "ali_....."). 15 With the help of concatenation function, one can concatenate the aligned 16 sequences, which are contained in the same species preserving the ALIGNMENT. 17 Before using concatenation function make sure that the species contains more 18 than two aligned or unaligned sequences. 17 19 18 Use "Sequence Type" button to load the desired type of alignments/sequences from the database. 20 Specify new name for the newly created concatenated alignment in the field 21 "New Alignment Name" (Make sure that the new alignment name starts with 22 "ali_....."). 19 23 20 Use Arrow buttons (located in between the lists) to select or remove the alignments into/from the "Alignments to be concatenated" list. 24 Use "Sequence Type" button to load the desired type of alignments/sequences 25 from the database. 21 26 22 You can also rearrange the order of concatenation of alignments by using "up" and "down" arrow keys (located by the side of "Alignments to be concatenated" list) before performing actual concatenation. 27 Use Arrow buttons (located in between the lists) to select or remove the 28 alignments into/from the "Alignments to be concatenated" list. 23 29 24 Pressing CLEAR LIST button clears the alignemts list selected for concatenation. 30 You can also rearrange the order of concatenation of alignments by using "up" 31 and "down" arrow keys (located by the side of "Alignments to be concatenated" 32 list) before performing actual concatenation. 25 33 26 Use "Alignment Separator" to specify the tag/separator between the alignments to be concatenated. 34 Pressing CLEAR LIST button clears the alignments list selected for 35 concatenation. 27 36 28 Pressing CONCATENATE button performs concatenation function for the alignments selected in the order of the alignments present in the "Alignments to be concatenated" list. 37 Use "Alignment Separator" to specify the tag/separator between the alignments 38 to be concatenated. 29 39 30 Use MERGE SIMILAR SPECIES button to create new species by merging similar species (for e.g., Similar species having different sequence alignments). 31 Additionally, you can do the same from the "Species" menu clicking on "Merge Similar Species" item. 40 Pressing CONCATENATE button performs concatenation function for the alignments 41 selected in the order of the alignments present in the "Alignments to be 42 concatenated" list. 32 43 33 If the database contains similar species with different sequence alignments use "MERGE and CONCATENATE" button to generate new species by merging similar species in the database and concatenating the different sequence alignments contained in the newly merged species. 44 Use MERGE SIMILAR SPECIES button to create new species by merging similar 45 species (for e.g., Similar species having different sequence alignments). 46 Additionally, you can do the same from the "Species" menu clicking on "Merge 47 Similar Species" item. 48 49 If the database contains similar species with different sequence alignments 50 use "MERGE and CONCATENATE" button to generate new species by merging similar 51 species in the database and concatenating the different sequence alignments 52 contained in the newly merged species. 34 53 35 NOTES If problems occurs during "Merging similar species" and/or "Concatenation", try the following - 54 NOTES 55 56 If problems occurs during "Merging similar species" and/or "Concatenation", 57 try the following - 36 58 37 1. Search the database for the "merged_species" field and mark the listed species, if any, and delete them. 59 1. Search the database for the "merged_species" field and mark the listed 60 species, if any, and delete them. 38 61 39 2. Then search the database for the <criterion_field> to use for merging similar species. Mark the resulting species and perform merging similar species. 62 2. Then search the database for the <criterion_field> to use for merging 63 similar species. Mark the resulting species and perform merging similar 64 species. 40 65 41 3. Usually newly generated (merged) species are marked and use the same to perform concatenation. CAUTION: Make sure that the new alignment name DOES NOT coinside with the selected alignments (names) to be concatenated !!! 66 3. Usually newly generated (merged) species are marked and use the same to 67 perform concatenation. CAUTION: Make sure that the new alignment name DOES NOT 68 coinside with the selected alignments (names) to be concatenated !!! 42 69 43 70 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/cons_params.hlp
r2986 r6142 14 14 OCCURRENCE ARB_NT/SAI/Consensus/expert 15 15 16 DESCRIPTION Allows to define the param ters for consensus calculation.16 DESCRIPTION Allows to define the parameters for consensus calculation. 17 17 18 18 The left part of the 'Expert Window' is similar to the -
branches/stable_5.0/HELP_SOURCE/oldhelp/consensus_def.hlp
r5712 r6142 23 23 24 24 If the switch is 'off', the algorithm will virtually remove all gaps. 25 That means if you have a col oumn with two 'A's25 That means if you have a column with two 'A's 26 26 and 500 gaps the program thinks of 100% 'A'. 27 27 (If the switch is 'on', the relative number of 'A's would be 2%) -
branches/stable_5.0/HELP_SOURCE/oldhelp/dist.hlp
r3024 r6142 39 39 4. Display the 'Select Filter' window by pressing the button 40 40 after the 'Filter' prompt and define an alignment- 41 associated mask which defines alig ment positions to41 associated mask which defines alignment positions to 42 42 include for treeing. 43 43 … … 46 46 6. Select rate matrix: !!! not implemented !!! 47 47 48 7. Type characters for the exclusion of alig ment postions to48 7. Type characters for the exclusion of alignment postions to 49 49 the 'Exclude Column' subwindow. The positions are 50 50 excluded from the calculation of binary distance values -
branches/stable_5.0/HELP_SOURCE/oldhelp/e4.hlp
r5260 r6142 39 39 ARB tools are exported to the editor every 5 seconds. 40 40 41 Multiple editors can be used synchron uously.41 Multiple editors can be used synchronously. 42 42 43 43 … … 127 127 Edit-mode: 128 128 129 Edit-mode is d evided into two submodes: Insert-mode129 Edit-mode is divided into two submodes: Insert-mode 130 130 and Replace-mode. Toggle between these submodes 131 131 with the 'Insert/Replace' button on the menuboard -
branches/stable_5.0/HELP_SOURCE/oldhelp/e4_block.hlp
r2986 r6142 20 20 21 21 22 More selection functions are avail iable in the first section22 More selection functions are available in the first section 23 23 of the Block menu: 24 24 -
branches/stable_5.0/HELP_SOURCE/oldhelp/e4_options.hlp
r3669 r6142 19 19 Online Sequence Compression (OSC) is a way to hide column positions 20 20 (normally: column positions containing only or many gaps) in order 21 to simplify editing of alig ments with wide gaps.21 to simplify editing of alignments with wide gaps. 22 22 23 23 OSC affects only the manner how sequences are DISPLAYED in the -
branches/stable_5.0/HELP_SOURCE/oldhelp/e4_replace.hlp
r5782 r6142 26 26 27 27 WARNINGS There are no further questions if you press GO. 28 If you pressed GO accident ly, press UNDO to clean up the mess.28 If you pressed GO accidentally, press UNDO to clean up the mess. 29 29 30 30 BUGS None -
branches/stable_5.0/HELP_SOURCE/oldhelp/e4_search.hlp
r5782 r6142 18 18 19 19 In the text field you can enter multiple search patterns. 20 Different patterns are sep erated by newlines or commas.20 Different patterns are separated by newlines or commas. 21 21 22 22 '?' is treated as single letter wildcard -
branches/stable_5.0/HELP_SOURCE/oldhelp/extended.hlp
r3614 r6142 12 12 TITLE SAI Sequence Associated Information 13 13 14 DESCRIPTION The main database d evides all sequences into two groups:14 DESCRIPTION The main database divides all sequences into two groups: 15 15 16 16 1. Species sequences -> Species -
branches/stable_5.0/HELP_SOURCE/oldhelp/gde.hlp
r941 r6142 54 54 sequence analysis functions into a common 55 55 environment. The GDE takes care of the user 56 interface issues, and allows the program er to56 interface issues, and allows the programmer to 57 57 concentrate on the analysis itself. Existing programs 58 58 can be tied into the GDE in a matter of hours (or … … 72 72 SECTION What's New for this Release 73 73 74 GDE 2.2 represents a maint ainence release. Several74 GDE 2.2 represents a maintenance release. Several 75 75 small bugs have been fixed, as well as new editing 76 76 features and user interface elements. Also, I have … … 90 90 useful "yanking" feature has been added by Scott 91 91 Ferguson from Exxon Research, and the capability 92 to export the colormap for a seq eunce (see93 appendic ies A/C). Among the bugs fixed in this92 to export the colormap for a sequence (see 93 appendices A/C). Among the bugs fixed in this 94 94 release are: 95 95 … … 111 111 and can be run remotely on any system capable of 112 112 running X Windows Release 4. You should have at 113 least 15 meg of free disk space available. The bina y113 least 15 meg of free disk space available. The binary 114 114 release for SparcStations was compiled under 115 115 SunOS 4.1.2 and Openwindows 3.0. … … 369 369 programs. Programs of the form: 370 370 371 program_name -a1 argument1 -a2 argu ement2 -f inputfile -er errorfile > outputfile371 program_name -a1 argument1 -a2 argument2 -f inputfile -er errorfile > outputfile 372 372 373 373 can be specified in the .GDEmenus file directly. As … … 545 545 Minimum overlap Number of bases required for overlap 546 546 Percent match within overlap Percentage match required in the overlap 547 region before merge is al owwed.547 region before merge is allowed. 548 548 549 549 Comments: … … 614 614 Author: Don Gilbert 615 615 616 Parameters: Many, but can easily be run in interactive m doe.616 Parameters: Many, but can easily be run in interactive mode. 617 617 618 618 Comments: … … 621 621 The latest versionsupports over a dozen different file formats, as 622 622 well as formating capabilities for publication. GDE makes of Readseq 623 for importing and exporting seq euences as well as a filtering tool to623 for importing and exporting sequences as well as a filtering tool to 624 624 some external functions. 625 625 -
branches/stable_5.0/HELP_SOURCE/oldhelp/gene_info.hlp
r5768 r6142 110 110 table, if it can reproduce them. 111 111 112 ARB_translation if 'translation' was NOT reproduc able, this112 ARB_translation if 'translation' was NOT reproducible, this 113 113 contains the result of the translation. In 114 114 this case the 'translation' has not been removed by ARB. -
branches/stable_5.0/HELP_SOURCE/oldhelp/gene_search.hlp
r5785 r6142 22 22 23 23 DESCRIPTION Searches for a (set of) genes 24 that match (don t match) a query or are marked.24 that match (don't match) a query or are marked. 25 25 26 26 The database is scanned for 'genes' which contain (or do not -
branches/stable_5.0/HELP_SOURCE/oldhelp/gene_species.hlp
r2986 r6142 27 27 alignment(s). 28 28 29 NOTES It's possible to export these gene-species to a sep erate ARB29 NOTES It's possible to export these gene-species to a separate ARB 30 30 database using the merge tool. 31 31 -
branches/stable_5.0/HELP_SOURCE/oldhelp/gene_species_field_transfer.hlp
r2986 r6142 29 29 no 'Source field'. 30 30 31 - Check if the example shows your inten ted result.31 - Check if the example shows your intended result. 32 32 33 33 NOTES The example will be calculated for the gene-species which is selected -
branches/stable_5.0/HELP_SOURCE/oldhelp/glossary.hlp
r5775 r6142 61 61 NDS 62 62 63 Node Display Setup: defines informatio which is displayed at63 Node Display Setup: defines information which is displayed at 64 64 tree nodes. 65 65 -
branches/stable_5.0/HELP_SOURCE/oldhelp/helixsym.hlp
r6124 r6142 29 29 The left textfield contains one or more base-pairs. Each base 30 30 pair contains two characters (bases, gaps-characters, ...). 31 Base-pairs are sep erated by spaces (' ').31 Base-pairs are separated by spaces (' '). 32 32 33 33 The right textfield contains the helix symbol used for each -
branches/stable_5.0/HELP_SOURCE/oldhelp/help.hlp
r5775 r6142 76 76 77 77 "Menu bars" at the top of windows (if present) are used to 78 expose menu choi ses. The menus are displayed after78 expose menu choices. The menus are displayed after 79 79 clicking on the prompts of the menu bar. 80 80 … … 85 85 "Menus" initiate actions after clicking on the items. 86 86 87 "Scroll bars" at the ext erme right and bottom of windows and87 "Scroll bars" at the extreme right and bottom of windows and 88 88 subwindows allow to move through the display area in 89 89 various increments. … … 98 98 (see LINK{mode.hlp}) 99 99 100 "Press" means hold down the mous button while completeing an100 "Press" means hold down the mouse button while completing an 101 101 operation. 102 102 -
branches/stable_5.0/HELP_SOURCE/oldhelp/importift.hlp
r6091 r6142 60 60 61 61 DESCRIPTION First of all the converter appends all import files maching 62 the filepattern into one file. The files are sep erated by the62 the filepattern into one file. The files are separated by the 63 63 string defined with the keyword SEQUENCEEND. 64 64 … … 74 74 - run commands with the concatenated lines 75 75 76 Known commands are (they are ex ucuted in the order listed here):76 Known commands are (they are executed in the order listed here): 77 77 78 78 - SRT "SRT_STRING" -
branches/stable_5.0/HELP_SOURCE/oldhelp/max_freq.hlp
r2986 r6142 15 15 DESCRIPTION Finds the most frequent base in each column for all marked 16 16 species. Than the number of all sequences with this base are 17 d evided by:17 divided by: 18 18 a: the number of all marked sequences, if not ignoring gaps 19 19 b: the number of bases in this column, if ignoring gaps … … 36 36 Ignoring Gaps will result in 7/11 == 64 % 37 37 which is converted to '6'. 38 Otherwise we get 7/16 == 44% which will be ind ecated by a38 Otherwise we get 7/16 == 44% which will be indicated by a 39 39 '4' in the target sequence. 40 40 -
branches/stable_5.0/HELP_SOURCE/oldhelp/mg_names.hlp
r5050 r6142 50 50 Normally merging is not allowed when there are duplicated species. 51 51 52 You may over ide that behavior by checking 'Allow merging duplicates',52 You may override that behavior by checking 'Allow merging duplicates', 53 53 but be warned: 54 54 55 55 It is VERY DANGEROUS to merge when duplicated species are in your 56 databases, cause there is no g arantee, that duplicates with the56 databases, cause there is no guarantee, that duplicates with the 57 57 same .NUM suffix refer to the same species. 58 58 You may easily overwrite or duplicate your data! -
branches/stable_5.0/HELP_SOURCE/oldhelp/mg_preserve.hlp
r3045 r6142 45 45 46 46 When merging similar databases with many species, searching adapt candidates 47 may take a lo ong time. Press KILL in the status window to abort the process.47 may take a long time. Press KILL in the status window to abort the process. 48 48 49 49 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/mg_spec_sel_field.hlp
r2986 r6142 27 27 to corresponding field and species of db II 28 28 29 NOTES Transfer ing fields that are not of string type in append mode29 NOTES Transferring fields that are not of string type in append mode 30 30 does not work 31 31 -
branches/stable_5.0/HELP_SOURCE/oldhelp/mg_species.hlp
r5785 r6142 18 18 * database searching, 19 19 * comparison of the two databases, 20 * transfer ing data from left to right20 * transferring data from left to right 21 21 * realigning sequences to new alignment 22 22 … … 77 77 box in the upper center of the TRANSFER SPECIES window, the 78 78 program will try to find those species in both databases, 79 create a column reference list, and realign all transfer ed79 create a column reference list, and realign all transferred 80 80 sequences. 81 81 To enable this feature, enable the 'Adapt alignment' toggle. -
branches/stable_5.0/HELP_SOURCE/oldhelp/mod_field_list.hlp
r3614 r6142 34 34 REG: Simple Regular Expressions (not for beginners) 35 35 36 '/Sea ch RegExpr/Replace String/' or37 '/Sea ch RegExpr/'36 '/Search RegExpr/Replace String/' or 37 '/Search RegExpr/' 38 38 (see LINK{regexpr.hlp} for more details) 39 39 … … 45 45 46 46 Different search/replace commands can be performed 47 simultan ously and have to be seperated by ':'47 simultaneously and have to be separated by ':' 48 48 49 49 ':search1=replace1:search2=replace2: ... :searchn=replacen'. -
branches/stable_5.0/HELP_SOURCE/oldhelp/mode_angle.hlp
r2986 r6142 50 50 The scale bar and its label can be moved by positioning the 51 51 cursor anywhere on the bar, keeping the left mouse button 52 pressed, moving the cursor to the desired position and sub-53 s equently releasing the mouse button. The label of the bar52 pressed, moving the cursor to the desired position and 53 subsequently releasing the mouse button. The label of the bar 54 54 can be moved independently. 55 55 -
branches/stable_5.0/HELP_SOURCE/oldhelp/mode_info.hlp
r2986 r6142 27 27 Select a species or an existing group: 28 28 29 Move the cu sor to the respective node and30 press the left mouse button. The corresponding infor-31 mation is displayed within the 'SPECIES INFORMATION'29 Move the cursor to the respective node and 30 press the left mouse button. The corresponding 31 information is displayed within the 'SPECIES INFORMATION' 32 32 window. 33 33 34 34 Create and select a group: 35 35 36 Move the cu sor to any corner or edge of the triangle36 Move the cursor to any corner or edge of the triangle 37 37 (radial tree) or rectangle (dendrogram) representing 38 38 the desired group and press the right mouse button. -
branches/stable_5.0/HELP_SOURCE/oldhelp/mode_move.hlp
r2986 r6142 38 38 tree topologies with respect to maximum parsimony criteria by 39 39 moving subtrees. The current parsimony value is shown after the 40 'Current Par' p ormpt and can be compared with the 'Optimum Par'41 value of the i initial tree.40 'Current Par' prompt and can be compared with the 'Optimum Par' 41 value of the initial tree. 42 42 43 43 -
branches/stable_5.0/HELP_SOURCE/oldhelp/mode_pzoom.hlp
r2986 r6142 27 27 Position the cursor to define the first corner of the 28 28 square to magnify. Keep the left mouse button pressed 29 and move the cursor to define size and posit on of the29 and move the cursor to define size and position of the 30 30 region to magnify. Release the button. 31 31 -
branches/stable_5.0/HELP_SOURCE/oldhelp/mp_params.hlp
r2986 r6142 17 17 - select the minimum mismatch that unmarked species should have 18 18 in the combination 19 - for weighting mismatches there are three possib lities:19 - for weighting mismatches there are three possibilities: 20 20 21 21 1. all mismatches are weighted equally 22 22 23 23 2. mismatches are weighted depending on which kind of 24 mismatch occur ed24 mismatch occurred 25 25 26 3. mismatches are weighted stronger the nearer it occur es26 3. mismatches are weighted stronger the nearer it occurs 27 27 at the center of the probe 28 28 -
branches/stable_5.0/HELP_SOURCE/oldhelp/multiprobe.hlp
r5775 r6142 64 64 with target sequences. 65 65 66 Weight misma ches66 Weight mismatches 67 67 68 68 If set, minor mismatches and mismatches at -
branches/stable_5.0/HELP_SOURCE/oldhelp/namesadmin.hlp
r4358 r6142 37 37 e.g if you import plain sequence data. 38 38 39 Use this to get rid of all nameserver entrie dusing ARB_xxx accession39 Use this to get rid of all nameserver entries using ARB_xxx accession 40 40 numbers. 41 41 … … 54 54 where it's needed. 55 55 56 For each field you use, a sep erate name server will be generated.56 For each field you use, a separate name server will be generated. 57 57 That means: 58 58 -
branches/stable_5.0/HELP_SOURCE/oldhelp/ne_compl.hlp
r2986 r6142 18 18 potential higher order structure elements should be studied. 19 19 20 Select a sequence by posit oning the cursor on its name and20 Select a sequence by positioning the cursor on its name and 21 21 pressing the left mouse button. 22 22 … … 38 38 39 39 Press <REST SEQUENCE> or <REST EDITOR> to complement or 40 reverse the sequence from the cur ent cursor position to40 reverse the sequence from the current cursor position to 41 41 the (right) end of the sequence or the (right) end of 42 42 the last (bottom) edited sequence, respectively. -
branches/stable_5.0/HELP_SOURCE/oldhelp/ne_pretty.hlp
r2986 r6142 10 10 11 11 #************* Title of helpfile !! and start of real helpfile ******** 12 TITLE Printing from E itor12 TITLE Printing from Editor 13 13 14 14 OCCURRENCE ARB_NT/ARB_EDIT/File/Pretty Print -
branches/stable_5.0/HELP_SOURCE/oldhelp/ne_replace.hlp
r2986 r6142 17 17 SAI entry. 18 18 19 Select a sequence by posit oning the curser on the name and19 Select a sequence by positioning the cursor on the name and 20 20 pressing the left mouse button. Position the cursor 21 21 within the SAI or sequence entry. -
branches/stable_5.0/HELP_SOURCE/oldhelp/next_neighbours.hlp
r5785 r6142 33 33 * Depending on the settings of 'Search/Add/Keep species' in the main query-window 34 34 the species list is either replaced, added or kept. 35 * Depending on the setting of 'that match/don t match the query' either the list of35 * Depending on the setting of 'that match/don't match the query' either the list of 36 36 found relatives is applied or the rest of the species. 37 37 -
branches/stable_5.0/HELP_SOURCE/oldhelp/next_neighbours_common.hlp
r5485 r6142 49 49 The 'Quick mode' works well for many sequence types and is approx. 4 times 50 50 faster than the 'Complete mode'. For some sequence types it completely fails, 51 e.g. if there are repet etive areas containing many 'AAAAA'51 e.g. if there are repetitive areas containing many 'AAAAA' 52 52 53 53 Match score: -
branches/stable_5.0/HELP_SOURCE/oldhelp/nt_align_select.hlp
r941 r6142 15 15 predicted amino acid sequences, respectively, assigned to the 16 16 same species can be stored in one database. 17 The name of the currently ac essible alignment (ali_*) is shown17 The name of the currently accessible alignment (ali_*) is shown 18 18 in the respective button (ARB_NT/3rd broad rectangular 19 19 button in top-area) -
branches/stable_5.0/HELP_SOURCE/oldhelp/pa_bootstrap.hlp
r3191 r6142 32 32 c d 33 33 34 exchange a with b ( or a with d ) and count all col oums in the alignment34 exchange a with b ( or a with d ) and count all columns in the alignment 35 35 with a greater/smaller/equal minimal number of mutations 36 36 than the original tree. -
branches/stable_5.0/HELP_SOURCE/oldhelp/pa_quick.hlp
r2986 r6142 25 25 26 26 This tool should be used for the positioning of 'species' for 27 which only partial or preliminary sequence data are avail ble.27 which only partial or preliminary sequence data are available. 28 28 29 29 EXAMPLES None 30 30 31 31 WARNINGS The phylogenetic information conferred by the new sequence(s) is 32 not used for global tree eoptimization.32 not used for global tree optimization. 33 33 34 34 BUGS No bugs known -
branches/stable_5.0/HELP_SOURCE/oldhelp/pa_quick_sel.hlp
r2986 r6142 23 23 24 24 This tool should be used for the positioning of 'species' for 25 which only partial or preliminary sequence data are avail ble.25 which only partial or preliminary sequence data are available. 26 26 27 27 EXAMPLES None 28 28 29 29 WARNINGS The phylogenetic information conferred by the new sequence is 30 not used for global tree eoptimization.30 not used for global tree optimization. 31 31 32 32 BUGS No bugs known -
branches/stable_5.0/HELP_SOURCE/oldhelp/pa_ranchlengths.hlp
r2986 r6142 14 14 15 15 16 DESCRIPTION Calculates branch lenghts for the current tree. Branch swapping17 is used to estimate the significance of tree topologies. 16 DESCRIPTION Calculates branchlengths for the current tree. Branch swapping 17 is used to estimate the significance of tree topologies. 18 18 19 19 NOTES The branch lengths reflect the significance of edges rather than -
branches/stable_5.0/HELP_SOURCE/oldhelp/pars.hlp
r3614 r6142 29 29 30 30 Filters for the in- or exclusion of alignment columns 31 ('ARB_NT/SAI; ARB_NT/Tree/Dist Matrix) can be sele ted.31 ('ARB_NT/SAI; ARB_NT/Tree/Dist Matrix) can be selected. 32 32 33 33 After selecting one of the parsimony items in 'Tree/Add species to existing tree' -
branches/stable_5.0/HELP_SOURCE/oldhelp/parser.hlp
r3614 r6142 14 14 15 15 OCCURRENCE TREE/Species/Search:PARSE FIELD 16 TREE/Prop orties/NDS16 TREE/Properties/NDS 17 17 18 18 … … 22 22 and replace it by 'replace' 23 23 24 Different search/replace commands can be sep erated by ':':24 Different search/replace commands can be separated by ':': 25 25 26 26 'search1=replace1:search2=replace2: ... :searchn=replacen' … … 30 30 Search && Replace string: 31 31 32 : sep erates two commands33 = sep erates the search from the replace string32 : separates two commands 33 = separates the search from the replace string 34 34 \ Escape symbol 35 35 \\ the '\' symbol itself -
branches/stable_5.0/HELP_SOURCE/oldhelp/pd_spec_param.hlp
r2986 r6142 25 25 Define threshold for splitting melting domains: 26 26 27 Type a value to the 'Th eshold for Splitting' subwindow.28 This value is sub stracted from the mean of all pairing27 Type a value to the 'Threshold for Splitting' subwindow. 28 This value is subtracted from the mean of all pairing 29 29 values of the potential probe target hybrid. If the 30 30 resulting value is lower than that of a particular -
branches/stable_5.0/HELP_SOURCE/oldhelp/pfold.hlp
r5782 r6142 64 64 [2] DSSP 65 65 66 The DSSP program was develop ped to standardize secondary structure66 The DSSP program was developed to standardize secondary structure 67 67 assignment. It assigns protein secondary structures to amino acid 68 68 sequences from the amino acids' crystallographic atom coordinates … … 77 77 NOTES 78 78 79 The used method for protein secondary structure predic iton, i.e. the Chou-Faman79 The used method for protein secondary structure prediction, i.e. the Chou-Faman 80 80 algorithm, is fast which was the main reason for choosing it. Performance is 81 81 important for a large number of sequences loaded in the editor. However, it … … 88 88 WARNINGS 89 89 90 !!! Protein secondary st tructure in the field 'sec_struct' is not aligned90 !!! Protein secondary structure in the field 'sec_struct' is not aligned 91 91 automatically with the sequence (yet). It has to be aligned manually !!! 92 92 -
branches/stable_5.0/HELP_SOURCE/oldhelp/pfold_props.hlp
r5260 r6142 47 47 - The left textfield contains one or more amino acid pairs. Each 48 48 pair contains two characters (amino acids, gaps-characters, ...). 49 Pairs are sep erated by spaces (' ').49 Pairs are separated by spaces (' '). 50 50 - The right textfield contains the match symbol used for each 51 51 of the specified pairs. -
branches/stable_5.0/HELP_SOURCE/oldhelp/phyl.hlp
r2986 r6142 25 25 26 26 Select minimum and maximum similarities for the individual 27 columns to be included for similar ty or distance matrix27 columns to be included for similarity or distance matrix 28 28 calculation by typing the values (50 means the most 29 29 frequent base at a particular position is shared by at … … 35 35 marked sequences (species) should be taken into account: 36 36 37 Use the rig thmouse button to display the submenus37 Use the right mouse button to display the submenus 38 38 associated to the items below the 'markerline:' prompt 39 39 by pressing the respective buttons. … … 53 53 sequences. 54 54 55 treat as a biguous:55 treat as ambiguous: 56 56 Take the respective symbol as an 57 57 unambiguous residue. … … 60 60 distance calculations: 61 61 62 Use the rig thmouse button to display the submenus63 associated to the items sbelow the 'distance matrix:'62 Use the right mouse button to display the submenus 63 associated to the items below the 'distance matrix:' 64 64 prompt by pressing the respective buttons. 65 65 … … 78 78 Use the right mouse button to display the 'CALCULATE' 79 79 menu and select 'markerline' (profile) or 'distance 80 matrix' by releasing the mouse button while the curs er80 matrix' by releasing the mouse button while the cursor 81 81 is positioned on the respective menu button. 82 82 … … 85 85 Use the right mouse button to display the 'VIEW' 86 86 menu and select 'species', 'markerline' or 'distance 87 matrix' by releasing the mouse button while the curs er87 matrix' by releasing the mouse button while the cursor 88 88 is positioned on the respective menu button. The names, 89 89 the aligment of the marked sequences and the … … 124 124 ascii files, use the right mouse button to display the 125 125 'SAVE' menu and select the corresponding menu item by 126 releasing the mouse button while the curs er is126 releasing the mouse button while the cursor is 127 127 positioned on it. 128 128 -
branches/stable_5.0/HELP_SOURCE/oldhelp/phylo.hlp
r4350 r6142 11 11 TITLE ARB_PHYLO - Create filters by base frequency 12 12 13 OCCURRENCE ARB_NT/SAI/Create Filter/by Base Frequ ncy13 OCCURRENCE ARB_NT/SAI/Create Filter/by Base Frequency 14 14 15 15 DESCRIPTION Calculate base frequencies and/or a base frequency filter. … … 52 52 The corresponding characters are counted like regular sequence characters, 53 53 but never interpreted as "being the most homologous character". 54 Compared with 'don t count' it will result in lower base frequencies, cause54 Compared with 'don't count' it will result in lower base frequencies, cause 55 55 the overall number of characters occurring per column will be higher. 56 56 … … 85 85 - all alignment columns 86 86 - similarity 0 to 100 87 - both gaps: 'don t count (ignore)'87 - both gaps: 'don't count (ignore)' 88 88 - ambiguity codes: 'treat as regular character' 89 89 - lowercase chars: 'treat as uppercase char' -
branches/stable_5.0/HELP_SOURCE/oldhelp/pos_var_pars.hlp
r2986 r6142 9 9 10 10 #************* Title of helpfile !! and start of real helpfile ******** 11 TITLE Column - Statistik11 TITLE Column statistic 12 12 13 13 OCCURRENCE ARB_NT/SAI/Create SAI from Sequences/Positional Variability ... -
branches/stable_5.0/HELP_SOURCE/oldhelp/primer.hlp
r2986 r6142 9 9 10 10 #************* Title of helpfile !! and start of real helpfile ******** 11 TITLE Primer Design @@@@@@@ 11 TITLE Primer Design 12 13 @@@ sorry - need translation into english 12 14 13 15 -
branches/stable_5.0/HELP_SOURCE/oldhelp/probedesign.hlp
r4935 r6142 94 94 95 95 Consequently, useful target sites may be not detected. 96 Similar ily,marked species not related to the target species and96 Similarly marked species not related to the target species and 97 97 not contained in the displayed tree will be treated as targets. 98 98 -
branches/stable_5.0/HELP_SOURCE/oldhelp/probedesignresult.hlp
r2986 r6142 24 24 columns of the display area, respectively. 25 25 26 The length of the p soposed probe is given in column 2.26 The length of the proposed probe is given in column 2. 27 27 28 28 Columns 3 and 4 indicate the 5'-positions of the target sites … … 41 41 lowered. 42 42 43 !!! The columns do only represent virtual temp arature44 shifts and cannot be assigned to centigrades.!!!43 !!! The columns do only represent virtual temperature 44 shifts and cannot be assigned to degree centigrade!!! 45 45 46 46 To write the results to an ascii file press the 'SAVE' button … … 51 51 SECTION SORTING 52 52 53 The program mbrings the best probes to the front of the list.53 The program brings the best probes to the front of the list. 54 54 Best means the product 55 55 -
branches/stable_5.0/HELP_SOURCE/oldhelp/probematch.hlp
r3614 r6142 86 86 87 87 NOTES Unlike the 'ARB_PROBE_DESIGN' tool, the 'ARB_PROBE_MATCH' tool 88 does not depend on the consist ancy of the current and the88 does not depend on the consistency of the current and the 89 89 'PT_SERVER' database. Any 'PT_SERVER' database containing 90 90 homologous or non-homologous, aligned or crude data can be -
branches/stable_5.0/HELP_SOURCE/oldhelp/prompt/format_alignments.hlp
r1626 r6142 13 13 OCCURRENCE ARB_NT 14 14 15 DESCRIPTION Many functions of ARB expect all sequences of an align ent to15 DESCRIPTION Many functions of ARB expect all sequences of an alignment to 16 16 be of the same length (Note: "length" doesn't mean "number 17 17 of bases" here). -
branches/stable_5.0/HELP_SOURCE/oldhelp/proteinViewer.hlp
r4186 r6142 13 13 OCCURRENCE ARB_EDIT->View->ProteinViewer 14 14 15 DESCRIPTION Use this function to display AminoAcid sequence along with the DNA sequence.15 DESCRIPTION Use this function to display AminoAcid sequence along with the DNA sequence. 16 16 17 There are six possible reading frames in every sequence, three starting at positions 1, 2 and 3 and going in 5'---->3' direction of a given sequence, and another three starting at positions 1, 2, and 3 and going in 5'--->3' direction of a given sequence of the complementary sequence. 17 There are six possible reading frames in every sequence, three starting at 18 positions 1, 2 and 3 and going in 5'---->3' direction of a given sequence, 19 and another three starting at positions 1, 2, and 3 and going in 5'--->3' 20 direction of a given sequence of the complementary sequence. 18 21 19 CODON TABLE: 20 Select the desired codon table from the list of standard codon tables normally used in translating protein genes. 22 CODON TABLE: 21 23 22 START POSITION:23 Select the start position where the translation should begin at (base position). eg., 1, 2 or 3.24 Select the desired codon table from the list of standard codon 25 tables normally used in translating protein genes. 24 26 25 STRAND TYPE: 26 Check the "Forward Strand" to use the given sequence (as displayed) for translation. And checking "Complementary Strand" uses complementary sequence of the displayed sequence for tranlation. 27 START POSITION: 27 28 28 By checking "Translate from database fields" , ProteinViewer extracts "translation/codon table" and "start position" from the database and uses the same for tranlation. 29 Select the start position where the translation should begin at 30 (base position). eg., 1, 2 or 3. 29 31 30 By default, the translated (aminoacid) sequence will be displayed as single letter codes. eg., A for Arginine, etc., But you can disply three letter aminoacid code (eg., Met for methionine) in the translated sequence by checking "Display Aminoacid names" checkbox.32 STRAND TYPE: 31 33 32 Display options "text" and "box" will display aminoacid codes or colored boxes in the tranlated sequence, respectively. 34 Check the "Forward Strand" to use the given sequence (as displayed) 35 for translation. And checking "Complementary Strand" uses 36 complementary sequence of the displayed sequence for translation. 33 37 34 Diplay at "Marked", "Selected", "Cursor" and "All" will toggle the display of aminoacid sequence only for marked, selected, cursor position and all species in the editor, respectively. 38 By checking "Translate from database fields" , ProteinViewer extracts 39 "translation/codon table" and "start position" from the database and uses 40 the same for translation. 35 41 36 SAVE AMINOACID SEQUENCE ALIGNMENT: 37 Once the alignement is refiened according to the aminoacid sequence, you can save the translated (aminoacid) sequence to the database as a new alignment. 42 By default, the translated (aminoacid) sequence will be displayed as 43 single letter codes. eg., A for Arginine, etc., But you can disply three 44 letter aminoacid code (eg., Met for methionine) in the translated sequence 45 by checking "Display Aminoacid names" checkbox. 46 47 Display options "text" and "box" will display aminoacid codes or colored 48 boxes in the translated sequence, respectively. 49 50 Display at "Marked", "Selected", "Cursor" and "All" will toggle the display 51 of aminoacid sequence only for marked, selected, cursor position and all 52 species in the editor, respectively. 53 54 SAVE AMINOACID SEQUENCE ALIGNMENT: 55 56 Once the alignment is refined according to the aminoacid sequence, 57 you can save the translated (aminoacid) sequence to the database as 58 a new alignment. 38 59 39 60 NOTES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/pt_server.hlp
r4934 r6142 33 33 SEARCH_PATTERNS_IN_A_BIG_DATABASE_PROGRAM. 34 34 35 We named this program mPT_SERVER ('Prefix tree server' or35 We named this program PT_SERVER ('Prefix tree server' or 36 36 synonymously 'Positional tree server'). 37 37 The PT_SERVER searches for patterns in special database files -
branches/stable_5.0/HELP_SOURCE/oldhelp/rdp_ift.hlp
r2986 r6142 14 14 15 15 DESCRIPTION This is a well designed reader for files from RDP. 16 It reads a lot of additional information s.16 It reads a lot of additional information. 17 17 18 18 NOTES Destination fields are tagged by [RDP] -
branches/stable_5.0/HELP_SOURCE/oldhelp/regexpr.hlp
r5788 r6142 69 69 (e.g. '/bacter|spiri/i' matches all strings containing "bacter" or "spiri") 70 70 71 '()' marks a subexpression. Subexpressions can be used to sep erate alternatives71 '()' marks a subexpression. Subexpressions can be used to separate alternatives 72 72 or to mark parts for use in the replace expression (see below). 73 73 -
branches/stable_5.0/HELP_SOURCE/oldhelp/rename.hlp
r4170 r6142 14 14 15 15 OCCURRENCE ARB_NT/Species/Generate new names 16 ARB_INTRO <MERGE TWO ARB DATABASES> ARB_MERGE <Check Consistency 17 of Names> CHECK NAMES <RENAME DATASBASE .> 16 ARB_MERGE/Check Names/Rename species 18 17 19 18 DESCRIPTION Starts the 'NAME SERVER' to update names within the specified 20 database according to the information stor ted in the file19 database according to the information stored in the file 21 20 '$ARBHOME/lib/nas/names.dat'. 22 21 … … 24 23 25 24 NOTES It is possible to link names.dat to a central names.dat, but you should 26 be aware, that there may occur temporary inconsi tencies, if multiple users25 be aware, that there may occur temporary inconsistencies, if multiple users 27 26 use the nameserver at the same time. 28 27 -
branches/stable_5.0/HELP_SOURCE/oldhelp/rna3d_dispBases.hlp
r4186 r6142 14 14 OCCURRENCE In ARB primary structure editor (ARB_EDIT4) -> RNA3D 15 15 16 DESCRIPTION 17 To achieve more performance and dynamic overlay of any sequence associated information, rendering (drawing) was simplified to chain display with the capacity to display residues in the form nucleotides - Adenosine (A), Guanine (G), Cytosine (C) and Uracil (U) at the respective coordinates in the molecule. Also viewing the entire chemical structure in the moleculeâs 3D structure is less readable. 16 DESCRIPTION 17 18 To achieve more performance and dynamic overlay of any sequence associated 19 information, rendering (drawing) was simplified to chain display with the capacity to 20 display residues in the form nucleotides - Adenosine (A), Guanine (G), Cytosine (C) 21 and Uracil (U) at the respective coordinates in the molecule. Also viewing the entire 22 chemical structure in the moleculeâs 3D structure is less readable. 18 23 19 24 Display Bases 20 By enabling the check box the corresponding residues in the rRNA sequence can be displayed on the rRNA 3D structure. Disabling this check box will display the molecule skeleton without residues. 25 26 By enabling the check box the corresponding residues in the rRNA sequence can 27 be displayed on the rRNA 3D structure. Disabling this check box will display 28 the molecule skeleton without residues. 21 29 22 30 Helix Region 23 Enabling this check box will display residues that are participating in Helix formation in the secondary structure models of small subunit rRNA. 31 32 Enabling this check box will display residues that are participating in Helix 33 formation in the secondary structure models of small subunit rRNA. 24 34 25 35 Unpaired Helix Region 26 Enabling this check box will display residues that are participating in bulge (unpaired helix) formation in the secondary structure models of small subunit rRNA. 36 37 Enabling this check box will display residues that are participating in bulge 38 (unpaired helix) formation in the secondary structure models of small subunit 39 rRNA. 27 40 28 41 Non-Helix Region 29 Enabling this check box will display residues that are participating in loop (non-helix) formation in the secondary structure models of small subunit rRNA. 42 43 Enabling this check box will display residues that are participating in loop 44 (non-helix) formation in the secondary structure models of small subunit rRNA. 30 45 31 46 Display Size 32 The size of the residues displayed can be changed by specifying the desired size in âDisplay sizeâ box. 47 48 The size of the residues displayed can be changed by specifying the desired 49 size in âDisplay sizeâ box. 33 50 34 51 CHARACTERS 35 The corresponding residues are displayed with the actual nucleotides - Adenosine (A), Guanine (G), Cytosine (C) and Uracil (U). 52 53 The corresponding residues are displayed with the actual nucleotides - 54 Adenosine (A), Guanine (G), Cytosine (C) and Uracil (U). 36 55 37 56 SHAPES 38 The corresponding residues are displayed with the respective shapes specified for different structural motifs.39 57 40 By setting different colors for the secondary structural motifs (loops, stems and bulges) using âColor Settingsâ, the respective regions can be easily recognized in the rRNA 3D structure. 58 The corresponding residues are displayed with the respective shapes specified 59 for different structural motifs. 60 61 By setting different colors for the secondary structural motifs (loops, stems and 62 bulges) using âColor Settingsâ, the respective regions can be easily recognized in 63 the rRNA 3D structure. 41 64 42 65 NOTES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/rna3d_dispHelices.hlp
r4186 r6142 10 10 11 11 #************* Title of helpfile !! and start of real helpfile ******** 12 TITLE Mapping Secondary Structural Info mation12 TITLE Mapping Secondary Structural Information 13 13 14 14 OCCURRENCE In ARB primary structure editor (ARB_EDIT4) -> RNA3D … … 16 16 DESCRIPTION 17 17 18 Secondary and tertiary structure interactions of the well established comparative structure models of rRNA which are used in SECEDIT to generate 2D structure models are fitted to the three-dimensional structure of E. coli master sequence. 18 Secondary and tertiary structure interactions of the well established comparative 19 structure models of rRNA which are used in SECEDIT to generate 2D structure models are 20 fitted to the three-dimensional structure of E. coli master sequence. 19 21 20 DISPLAY HELICES : Enabling this check box maps the secondary structural motifs (loops, helices and bulges) onto the molecule. Secondary structural information is according to the comparative models of rRNA used in primary and secondary structure editors.22 DISPLAY HELICES: 21 23 22 HELIX SKELETON : Enabling will draw a skeleton of secondary structure mask. By setting a grey or light color you can achieve transparent mask avoiding any interference with other information overlays. 24 Enabling this check box maps the secondary structural motifs (loops, helices 25 and bulges) onto the molecule. Secondary structural information is according 26 to the comparative models of rRNA used in primary and secondary structure 27 editors. 23 28 24 DISPLAY MID-HELIX : This displays middle point of the helices.29 HELIX SKELETON: 25 30 26 DISPLAY HELIX NUMBER : Checking this box will display the corresponding helix numbers in the rRNA 3D structure. Helix numbers are according to ARB numbering scheme. The small subunit (16S) rRNA of E.coli contains 50 helices which are numbered from 1 to 50. 31 Enabling will draw a skeleton of secondary structure mask. By setting a grey 32 or light color you can achieve transparent mask avoiding any interference with 33 other information overlays. 27 34 28 DISPLAY NUMBER OF HELICES : Using this you can set the number of helices you would like to be displayed in the 3D molecule. This feature is very helpful to thoroughly examine the specific helices in the structure.35 DISPLAY MID-HELIX: 29 36 30 HELIX SIZE : Thickness or the size of the helices can be set by specifying the desired value in this box.37 This displays middle point of the helices. 31 38 32 DISPLAY TERTIARY INTERACTIONS : The tertiary interactions observed in small subunit rRNA can be displayed in the three-dimensional conformations of small subunit rRNA by enabling this check box. The tertiary information data is from Gauthert et al.39 DISPLAY HELIX NUMBER: 33 40 34 Color settings related to helix, skeleton, mid-helix, helix number and tertiary interactions can be changed using âColor Settingsâ of the main RNA3D window. 41 Checking this box will display the corresponding helix numbers in the rRNA 3D 42 structure. Helix numbers are according to ARB numbering scheme. The small 43 subunit (16S) rRNA of E.coli contains 50 helices which are numbered from 1 to 44 50. 45 46 DISPLAY NUMBER OF HELICES: 47 48 Using this you can set the number of helices you would like to be displayed in 49 the 3D molecule. This feature is very helpful to thoroughly examine the 50 specific helices in the structure. 51 52 HELIX SIZE: 53 54 Thickness or the size of the helices can be set by specifying the desired 55 value in this box. 56 57 DISPLAY TERTIARY INTERACTIONS: 58 59 The tertiary interactions observed in small subunit rRNA can be displayed in 60 the three-dimensional conformations of small subunit rRNA by enabling this 61 check box. The tertiary information data is from Gautheret et al. 62 63 Color settings related to helix, skeleton, mid-helix, helix number and tertiary 64 interactions can be changed using âColor Settingsâ of the main RNA3D window. 35 65 36 66 NOTES 37 67 38 Gautheret D, Damberger SH, Gutell RR: Identification of base-triples in RNA using comparative sequence analysis. J Mol Biol 1995, 248: 27-43. 68 Gautheret D, Damberger SH, Gutell RR: Identification of base-triples in RNA using 69 comparative sequence analysis. J Mol Biol 1995, 248: 27-43. 39 70 40 71 -
branches/stable_5.0/HELP_SOURCE/oldhelp/rna3d_dispMolecule.hlp
r4186 r6142 10 10 11 11 #************* Title of helpfile !! and start of real helpfile ******** 12 TITLE General Dis lpay Options12 TITLE General Display Options 13 13 14 14 OCCURRENCE In Primary Structure Editor (ARB_EDIT4) -> RNA3D Program … … 19 19 20 20 Display Molecule Skeleton 21 Enabling this will display the entire molecule skeleton in a user-defined color. By setting a grey or light color you can achieve transparent contours of the molecule displayed avoiding its interference with the mapping information.22 21 23 SIZE : The size or thickness of the skeleton can be set by specifying the desired thickness in the âsizeâ box. By default it is set to decimal 5. 22 Enabling this will display the entire molecule skeleton in a user-defined 23 color. By setting a grey or light color you can achieve transparent contours 24 of the molecule displayed avoiding its interference with the mapping 25 information. 24 26 25 COLORIZE MOLECULE SKELETON : Based on the residues participating in secondary structural motifs (loops, helices, bulges) the molecule skeleton can be colored. Color settings with respect to secondary structural motifs can be changed using the âColor Palateâ of the RNA3D interface.27 SIZE: 26 28 27 DISPLAY BASE POSITION : Base positions corresponding to the reference sequence (Escherichia coli) can be displayed by checking this check box. The interval of positions to be displayed can be changed by specifying the desired âinterval sizeâ at the included box. Displaying the base positions helps i) to locate probe binding sites within the molecule, ii) to refine the sequence alignments according to the molecule structure, and also iii) to identify the exact position in the primary sequence, where insertions, deletions and base substitutions occur with respect to the template sequence when a different rRNA sequence is mapped onto the master structure. 29 The size or thickness of the skeleton can be set by specifying the desired 30 thickness in the âsizeâ box. By default it is set to decimal 5. 28 31 29 ROTATE MOLECULE : Enabling this check box rotates the molecule automatically. The direction and speed of the rotation can be changed by using left mouse button and mouse movement, respectively. Alternatively, molecule can also be rotated by pressing âspace barâ on the keyboard.32 COLORIZE MOLECULE SKELETON: 30 33 31 DISPLAY CURSOR POSITION : Checking this box will enable the cursor position to be displayed in the molecule. Cursor position is directly connected to primary structure editor (ARB_EDIT4) and any movement of cursor in ARB_EDIT4 is instantly updated in the RNA3D window. 34 Based on the residues participating in secondary structural motifs (loops, 35 helices, bulges) the molecule skeleton can be colored. Color settings with 36 respect to secondary structural motifs can be changed using the âColor 37 Palateâ of the RNA3D interface. 38 39 DISPLAY BASE POSITION: 40 41 Base positions corresponding to the reference sequence (Escherichia coli) can 42 be displayed by checking this check box. The interval of positions to be 43 displayed can be changed by specifying the desired âinterval sizeâ at the 44 included box. Displaying the base positions helps i) to locate probe binding 45 sites within the molecule, ii) to refine the sequence alignments according to 46 the molecule structure, and also iii) to identify the exact position in the 47 primary sequence, where insertions, deletions and base substitutions occur 48 with respect to the template sequence when a different rRNA sequence is mapped 49 onto the master structure. 50 51 ROTATE MOLECULE: 52 53 Enabling this check box rotates the molecule automatically. The direction and 54 speed of the rotation can be changed by using left mouse button and mouse 55 movement, respectively. Alternatively, molecule can also be rotated by 56 pressing âspace barâ on the keyboard. 57 58 DISPLAY CURSOR POSITION: 59 60 Checking this box will enable the cursor position to be displayed in the 61 molecule. Cursor position is directly connected to primary structure editor 62 (ARB_EDIT4) and any movement of cursor in ARB_EDIT4 is instantly updated in 63 the RNA3D window. 32 64 33 65 -
branches/stable_5.0/HELP_SOURCE/oldhelp/rna3d_general.hlp
r5711 r6142 17 17 18 18 19 OCCURRENCE In Primary Sequ nce Editor (ARB_EDIT4)19 OCCURRENCE In Primary Sequence Editor (ARB_EDIT4) 20 20 21 21 DESCRIPTION 22 22 23 This program (RNA3D) displays the three-dimensional structure of small subunit (16S) rRNA in OpenGL 3D environment. The annotation of RNA three-dimensional structures consists of a preprocessing of the information embedded in their 3D coordinates. It processes PDB structural information stored in the PDB file (1M5G) and used for further structural analysis and searches. To provide user with the more detatiled perspective of 16S rRNA structure, structural information corresponding to the ribosmal protiens were excluded during processing. The extracted structural informaion is then fed to OpenGL engine, where it is further transformed into a hierarchy of OpenGL objects, which encode molecule chains, residues and base positions. At this stage, further processing may occur, for example when the user requests the mapping of secondary structure information of rRNA onto the molecule in the form of loops and stems. Any information derived from the multiple alignments (phylogenetic information) is merged into the structural information or rRNA molecule in the post-processing step. 23 This program (RNA3D) displays the three-dimensional structure of small subunit (16S) 24 rRNA in OpenGL 3D environment. The annotation of RNA three-dimensional structures 25 consists of a preprocessing of the information embedded in their 3D coordinates. It 26 processes PDB structural information stored in the PDB file (1M5G) and used for 27 further structural analysis and searches. To provide user with the more detailed 28 perspective of 16S rRNA structure, structural information corresponding to the 29 ribosomal proteins were excluded during processing. The extracted structural information 30 is then fed to OpenGL engine, where it is further transformed into a hierarchy of 31 OpenGL objects, which encode molecule chains, residues and base positions. At this 32 stage, further processing may occur, for example when the user requests the mapping of 33 secondary structure information of rRNA onto the molecule in the form of loops and 34 stems. Any information derived from the multiple alignments (phylogenetic information) 35 is merged into the structural information or rRNA molecule in the post-processing 36 step. 24 37 25 NOTES 26 More information regarding merging secondary structure infomation and mapping individual rRNA sequence,sequence associated data, oligonucleotide probes can be found in the respective help files. See "Subtopics" section. 38 NOTES 39 40 More information regarding merging secondary structure information and mapping 41 individual rRNA sequence,sequence associated data, oligo-nucleotide probes can be found 42 in the respective help files. See "Subtopics" section. 27 43 28 44 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/rna3d_mapSeqData.hlp
r4186 r6142 17 17 18 18 SUPERIMPOSING rRNA SEQUENCE DATA 19 Any rRNA sequence contained in the multiple sequence alignments of ARB primary structure editor can be overlaid onto the structure of E. coli in the RNA3D window. Desired rRNA sequence to be mapped onto the structure can be selected by the left mouse button in the multiple sequence alignment and the selected rRNA sequence will be instantly mapped onto the master structure.20 19 21 The selected rRNA sequence is annotated with mutation (base substitutions), insertion and deletion information at each site as compared to the master sequence (E. coli). 20 Any rRNA sequence contained in the multiple sequence alignments of ARB primary 21 structure editor can be overlaid onto the structure of E. coli in the RNA3D 22 window. Desired rRNA sequence to be mapped onto the structure can be selected by 23 the left mouse button in the multiple sequence alignment and the selected rRNA 24 sequence will be instantly mapped onto the master structure. 22 25 23 For the regions where the sequences are aligned without deletion or insertion, direct base substitution (mutation) is applied. Because the Câ---Câ distance is essentially the same (~10.2 Ã 24 ) in all Watson-Crick base pairs (Watson and Crick, 1953), this simple procedure preserves the base pairing and the double helical structure while substituting the bases. Although there do exist the requirement of structural adjustments for non-Watson-Crick base pairs, currently, simple base substitutions are kept because the development of new models to achieve the necessary structural adjustments is out of the scope of the RNA3D tool. 26 The selected rRNA sequence is annotated with mutation (base substitutions), 27 insertion and deletion information at each site as compared to the master 28 sequence (E. coli). 25 29 26 In the regions where the alignment (of selected rRNA sequence) involves insertions, the respective insertion points to corresponding E. coli base position in the alignment are shown as down arrows in the crystal structure. The number of insertions and the participating nucleotides can also be displayed at the insertion points. 30 For the regions where the sequences are aligned without deletion or insertion, 31 direct base substitution (mutation) is applied. Because the Câ---Câ distance 32 is essentially the same (~10.2 Ã 33 ) in all Watson-Crick base pairs (Watson and 34 Crick, 1953), this simple procedure preserves the base pairing and the double 35 helical structure while substituting the bases. Although there do exist the 36 requirement of structural adjustments for non-Watson-Crick base pairs, currently, 37 simple base substitutions are kept because the development of new models to 38 achieve the necessary structural adjustments is out of the scope of the RNA3D 39 tool. 27 40 28 In the case of regions, where deletions are observed in the alignment corresponding to the master sequence (E. coli), respective sites in the crystal structure are indicated as deleted. 41 In the regions where the alignment (of selected rRNA sequence) involves 42 insertions, the respective insertion points to corresponding E. coli base 43 position in the alignment are shown as down arrows in the crystal structure. The 44 number of insertions and the participating nucleotides can also be displayed at 45 the insertion points. 46 47 In the case of regions, where deletions are observed in the alignment 48 corresponding to the master sequence (E. coli), respective sites in the crystal 49 structure are indicated as deleted. 29 50 30 51 DISPLAY OPTIONS 31 52 32 ENABLE MAPPING : Checking this box will enable the mapping or overlaying of any information onto the molecule globally. It is very useful to swiftly switching off mapping information.53 ENABLE MAPPING: 33 54 34 MAP SELECTED SPECIES : This check box will enable mapping rRNA sequence data contained in the multiple alignments onto the 3D molecule. 55 Checking this box will enable the mapping or overlaying of any information 56 onto the molecule globally. It is very useful to swiftly switching off 57 mapping information. 58 59 MAP SELECTED SPECIES: 60 61 This check box will enable mapping rRNA sequence data contained in the 62 multiple alignments onto the 3D molecule. 35 63 36 DISPLAY BASE DIFFERENCE : Enabling this check box will display the substitutions or mutations observed with respect to E.coli sequence onto 16S rRNA 3D structure.64 DISPLAY BASE DIFFERENCE: 37 65 38 DISPLAY BASE POSITION : Base positions corresponding to the observed substitutions or mutations in the mapped rRNA sequence are displayed by enabling this check box. 66 Enabling this check box will display the substitutions or mutations 67 observed with respect to E.coli sequence onto 16S rRNA 3D structure. 39 68 40 DISPLAY DELETIONS : Enabling this check box will display deletions in mapped rRNA sequence with respect to E.coli reference sequence data.69 DISPLAY BASE POSITION: 41 70 42 DISPLAY INSERTIONS : Enabling this check box will display insertions in mapped rRNA sequence with respect to E.coli reference sequence data. By checking 'Bases' box, the number of insertions along with the actual bases or residues is displayed at the insertion points. 71 Base positions corresponding to the observed substitutions or mutations in 72 the mapped rRNA sequence are displayed by enabling this check box. 43 73 44 DISPLAY MISSING BASES : Bases or residues which are presumed to be missing in the rRNA sequence alignments when comparing with the consensus model and/or during manual curation, can be visualized in the 3D structure. Missing bases denoted as dots ('.') in the multiple sequence alignments are mapped onto the rRNA 3D structure as question marks ('?') by enabling this check box. Such missing bases are more often attributed to errors during sequencing.74 DISPLAY DELETIONS: 45 75 46 Color settings related to mapped sequence data including insertions, deletions, mutations, and missing residues can be changed using 'Color Settings' of the main RNA3D window. 76 Enabling this check box will display deletions in mapped rRNA sequence 77 with respect to E.coli reference sequence data. 47 78 48 MAPPING OLIGONUCLEOTIDE PROBES 49 The localization of the proposed oligonucleotide probe targets can be visualized in customizable background colors with in the rRNA crystal structure. Using the navigation capabilities of RNA3D tool (see âNavigationâ section), one can get an idea about the probable binding site of the proposed probe with respect to the structural conformation of rRNA. 79 DISPLAY INSERTIONS: 50 80 51 Oligonucleotide probes are designed using integrated Probe Design and Probe Match tools of ARB. The selected oligonucleotide probe in probe match window is directly mapped onto the rRNA 3D structure by enabling âMap Search Patternsâ check box. 81 Enabling this check box will display insertions in mapped rRNA sequence 82 with respect to E.coli reference sequence data. By checking 'Bases' box, 83 the number of insertions along with the actual bases or residues is 84 displayed at the insertion points. 52 85 53 OVERLAYING SEQUENCE ASSOCIATED INFORMATION (SAI) 54 Various column statistics like sequence consensus, base frequency, positional variability based on parsimony method and any other user defined column statistics that are performed on the sequence alignments can be readily overlaid onto the 3D structure. 86 DISPLAY MISSING BASES: 55 87 56 Once the column statistics are performed, the user can define the color translation table for the chosen SAI in the ARB primary structure editor (see âView | Visualize SAIsâ menu). Different colors (up to 10 colors) can be set to the values or characters stored in the SAI to visualize in the molecular structure. The molecule can be re-colored using new settings anytime by clicking the color palate button (using Color Settings in RNA3D window). 88 Bases or residues which are presumed to be missing in the rRNA sequence 89 alignments when comparing with the consensus model and/or during manual 90 curation, can be visualized in the 3D structure. Missing bases denoted as 91 dots ('.') in the multiple sequence alignments are mapped onto the rRNA 3D 92 structure as question marks ('?') by enabling this check box. Such missing 93 bases are more often attributed to errors during sequencing. 94 95 Color settings related to mapped sequence data including insertions, deletions, 96 mutations, and missing residues can be changed using 'Color Settings' of the main 97 RNA3D window. 98 99 MAPPING OLIGO-NUCLEOTIDE PROBES: 100 101 The localization of the proposed oligo-nucleotide probe targets can be 102 visualized in customizable background colors with in the rRNA crystal 103 structure. Using the navigation capabilities of RNA3D tool (see 104 âNavigationâ section), one can get an idea about the probable binding 105 site of the proposed probe with respect to the structural conformation of 106 rRNA. 107 108 Oligo-nucleotide probes are designed using integrated Probe Design and 109 Probe Match tools of ARB. The selected oligo-nucleotide probe in probe 110 match window is directly mapped onto the rRNA 3D structure by enabling 111 âMap Search Patternsâ check box. 112 113 OVERLAYING SEQUENCE ASSOCIATED INFORMATION (SAI): 114 115 Various column statistics like sequence consensus, base frequency, 116 positional variability based on parsimony method and any other user 117 defined column statistics that are performed on the sequence alignments 118 can be readily overlaid onto the 3D structure. 119 120 Once the column statistics are performed, the user can define the color 121 translation table for the chosen SAI in the ARB primary structure editor 122 (see âView | Visualize SAIsâ menu). Different colors (up to 10 colors) 123 can be set to the values or characters stored in the SAI to visualize in 124 the molecular structure. The molecule can be re-colored using new settings 125 anytime by clicking the color palate button (using Color Settings in RNA3D 126 window). 57 127 58 By enabling the âMap Sequence Associated Informationâ check box, the transformed data is readily overlaid onto the rRNA 3D structure. Any change in the SAIs and respective color transformations can be reapplied by clicking ârefreshâ button. 128 By enabling the âMap Sequence Associated Informationâ check box, the 129 transformed data is readily overlaid onto the rRNA 3D structure. Any 130 change in the SAIs and respective color transformations can be reapplied 131 by clicking ârefreshâ button. 59 132 60 133 NOTES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/saiProbeHelp.hlp
r2610 r6142 9 9 10 10 #************* Title of helpfile !! and start of real helpfile ******** 11 TITLE Visuali sation of Sequence Associated Information (SAI) of Probe Match Results.11 TITLE Visualization of Sequence Associated Information (SAI) of Probe Match Results. 12 12 13 13 OCCURRENCE 14 14 In ARB primary Window (ARB_NT) : Probes (MENU) -> Match Probes (SUBMENU) 15 15 16 DESCRIPTION 17 This window aides Visualization of Sequence Associated Informations (SAIs) of the Potential Probe Targets that were designed (PROBE DESIGN TOOL) and matched using PROBE MATCH TOOL. 16 DESCRIPTION 17 18 This window aides Visualization of Sequence Associated Information (SAIs) of the 19 Potential Probe Targets that were designed (PROBE DESIGN TOOL) and matched using PROBE 20 MATCH TOOL. 18 21 19 22 Steps to be followed to VISUALIZE SAIs for the Potential Probe Targets: 20 23 21 1. Select SAI to be visualized from the Select SAI Menu. (FILE -> SELECT SAI)24 1. Select SAI to be visualized from the Select SAI Menu. (FILE -> SELECT SAI) 22 25 23 2. Define Desired Colors (COLOR 0 to COLOR 9) for the respective CHARACTERS / NUMBERS in the selected SAI to paint as background of the Probe Targets list. (FILE -> DEFINE COLOR TRANSLATIONS) 26 2. Define Desired Colors (COLOR 0 to COLOR 9) for the respective CHARACTERS / 27 NUMBERS in the selected SAI to paint as background of the Probe Targets 28 list. (FILE -> DEFINE COLOR TRANSLATIONS) 24 29 25 3. Values or Characters contained in the SAIs selected can also be displayed below each Probe Targets by selecting the DISPLAY SAI CHECK BOX in DEFINE COLOR TRANSLATION window. 30 3. Values or Characters contained in the SAIs selected can also be displayed 31 below each Probe Targets by selecting the DISPLAY SAI CHECK BOX in DEFINE COLOR 32 TRANSLATION window. 26 33 27 4. Once the desired SAI is selected and the respective color translation is defined, the SAI is painted as the background of the probe targets in the defined color ranges with respect to SAIs. 34 4. Once the desired SAI is selected and the respective color translation is 35 defined, the SAI is painted as the background of the probe targets in the 36 defined color ranges with respect to SAIs. 28 37 29 38 One can change the COLOR RANGE by going to FILE -> SET COLORS AND FONTS menu. 30 39 31 NOTES 32 Color Translation Defnitions defined for various SAIs can be saved by clicking SAVE button in DEFINE COLOR TRANSLATION window. (Press STORE to save the definitions and press RESTORE to restore the saved definitions). 33 To save the Color Translation Definitions permanently Go to ARB_NT window and save PROPERTIES under PROPERTIES MENU. 40 NOTES 41 42 Color Translation Definitions defined for various SAIs can be saved by clicking SAVE 43 button in DEFINE COLOR TRANSLATION window. (Press STORE to save the definitions and 44 press RESTORE to restore the saved definitions). 45 46 To save the Color Translation Definitions permanently Go to ARB_NT window and save 47 PROPERTIES under PROPERTIES MENU. 34 48 35 49 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/saveas.hlp
r2986 r6142 23 23 type the full path and file name to the subwindow 24 24 'FILE NAME:', press the <SAVE> button and wait until the 25 'SAVE ARB DB' window disappear es.25 'SAVE ARB DB' window disappears. 26 26 27 27 NOTES The suffix shown in the 'SUFFIX' subwindow is appended to the -
branches/stable_5.0/HELP_SOURCE/oldhelp/savedef.hlp
r2986 r6142 33 33 SECTION GENERAL NOTES ABOUT PROPERTIES 34 34 35 Most ssettings you can change in ARB are saved either35 Most settings you can change in ARB are saved either 36 36 37 37 - to properties or -
branches/stable_5.0/HELP_SOURCE/oldhelp/search_duplicates.hlp
r5795 r6142 25 25 perform some action on duplicates. 26 26 27 NOTES If you select 'that don t match the query' in the search window,27 NOTES If you select 'that don't match the query' in the search window, 28 28 this function instead searches for unique entries! 29 29 -
branches/stable_5.0/HELP_SOURCE/oldhelp/search_equal_fields.hlp
r6120 r6142 30 30 Search is performed only in the field selected in the first query of DB II. 31 31 32 If you select 'that don t match' in the search&query windows, species are only listed32 If you select 'that don't match' in the search&query windows, species are only listed 33 33 if they have an entry which doesn't exist in other DB. 34 34 … … 38 38 If you need to search for empty fields, 39 39 * either use the second query or 40 * search for '*' and select 'don t match'40 * search for '*' and select 'don't match' 41 41 42 42 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/searching.hlp
r5865 r6142 51 51 'pyrococcus*' matches all fields starting with 'pyrococcus' 52 52 '*bact*ther*' matches all fields with the substring 'bact' followed by 'ther' 53 (there may be many characters in between or none, i.e. it as53 (there may be many characters in-between or none, i.e. it as 54 54 well matches 'bactther') 55 55 -
branches/stable_5.0/HELP_SOURCE/oldhelp/sec_mode.hlp
r4815 r6142 28 28 Right mouse button removes the clicked helix region. 29 29 30 Tipp: If you display SAI: HELIX it's easy to detect the helix30 Hint: If you display SAI: HELIX it's easy to detect the helix 31 31 regions. 32 32 -
branches/stable_5.0/HELP_SOURCE/oldhelp/sel_fil.hlp
r2986 r6142 30 30 31 31 All bases may be simplified, leaving only transversions 32 and simpli dfied amino-acid-groups, allowing transversion32 and simplified amino-acid-groups, allowing transversion 33 33 parsimony/fdnaml/distmethods 34 34 … … 64 64 subwindow. 65 65 66 3. Type non-nucleotide and ambigu oity symbols to the66 3. Type non-nucleotide and ambiguity symbols to the 67 67 'Exclude Column' subwindow (.-acguRYS ....). 68 68 -
branches/stable_5.0/HELP_SOURCE/oldhelp/sel_spec.hlp
r2986 r6142 18 18 OCCURRENCE ARB_NT/Species/Search 19 19 20 DESCRIPTION An Individual species can be selec etd from 'Hit list'.20 DESCRIPTION An Individual species can be selected from 'Hit list'. 21 21 The 'SPECIES INFO' window showing all 'DATABASE FIELDS' and 22 22 the corresponding entries is initiated or updated. -
branches/stable_5.0/HELP_SOURCE/oldhelp/seq_quality.hlp
r2366 r6142 31 31 In the section "weights" you have quite a few options to fill in. 32 32 33 These are some of the criteria used to evaluate the quality of the sequences. 33 These are some of the criteria used to evaluate the quality of the sequences.. 34 34 The values represent the share of the criteria in the final evaluation-formula. 35 A higher value means emphasation.36 35 All values represent percentages, therefore all values together should sum up to 100. 37 36 … … 60 59 of all groups of which the species is a member. 61 60 62 That compar ation uses conformity with and deviation from the consensus sequence.61 That comparison uses conformity with and deviation from the consensus sequence. 63 62 64 63 # A consensus is computed from sequences in one group and then from subgroups to groups. 65 64 # So "multilevel" consensi are generated. 66 # The value consists of two analys es: Every sequence is tested against every level of the consensus.65 # The value consists of two analysis: Every sequence is tested against every level of the consensus. 67 66 # Conformity and deviation from the consensus are measured. 68 67 … … 81 80 Be aware that the computation is very complex and can easily take hours to finish. 82 81 So if you don't see the statusbar moving in the first ten minutes it just means 83 that you are analy sing a huge database.82 that you are analyzing a huge database. 84 83 85 84 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/sequence_colors.hlp
r3201 r6142 27 27 - In the first row you may choose which set is used for translation. 28 28 29 - The first col oumn shows the characters which should be29 - The first column shows the characters which should be 30 30 translated/replaced. 31 31 32 - The nth + 1 col oumn holds the data for translation set n.32 - The nth + 1 column holds the data for translation set n. 33 33 Each of its fields has two characters: 34 34 … … 58 58 - A simplified version of your amino acid alignment. 59 59 - Only YR instead of ACGTU 60 - Only ambig ous symbols60 - Only ambiguous symbols 61 61 - ... 62 62 -
branches/stable_5.0/HELP_SOURCE/oldhelp/sp_search.hlp
r5865 r6142 23 23 24 24 DESCRIPTION Searches for a (set of) species (not SAIs) 25 that match (don t match) a query or are marked.25 that match (don't match) a query or are marked. 26 26 27 27 The database is scanned for 'species' (see 'HELP') -
branches/stable_5.0/HELP_SOURCE/oldhelp/spaf_delete.hlp
r2986 r6142 20 20 display the 'DELETE FIELD' window. Select a field from the 21 21 'Fields' subwindow and press the HIDE FIELD> 22 (the field and its entry are no lo ger displayed in the 'SPECIES/GENE22 (the field and its entry are no longer displayed in the 'SPECIES/GENE 23 23 INFORMATION' window) or the <DELETE FIELD> (field 24 24 and its entry are deleted) button. -
branches/stable_5.0/HELP_SOURCE/oldhelp/species_join.hlp
r1171 r6142 25 25 candidates for joining (for e.g., full_name). 26 26 27 - Check sep erators for fields and sequences.27 - Check separators for fields and sequences. 28 28 29 29 - Press GO to start. -
branches/stable_5.0/HELP_SOURCE/oldhelp/st_ml.hlp
r2986 r6142 33 33 34 34 WARNINGS This is only a prototype, don't expect something perfect. 35 All sequences which should be analy sed should be marked and35 All sequences which should be analyzed should be marked and 36 36 in the tree shown by ARB_NT !!!!! 37 37 38 38 BUGS The colors are not set correctly by default. 39 The program mcan only be started once.39 The program can only be started once. 40 40 41 41 SECTION DETAILED COLUMN STATISTIC … … 64 64 displayed in color 'Range 0'. 65 65 66 [significance is 90% (hardcoded) - will be made utili sable soon]66 [significance is 90% (hardcoded) - will be made utilizable soon] 67 67 68 68 The single (or two) base character(s) responsive for the -
branches/stable_5.0/HELP_SOURCE/oldhelp/tbl_scale.hlp
r2764 r6142 19 19 (i.e. when the treeing program has an error) in which case ARB has 20 20 assumed that branchlengths are in range [0 .. 100] and 21 has d evided them by 100.21 has divided them by 100. 22 22 23 23 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/tkeep_mrkd.hlp
r2986 r6142 22 22 WARNINGS !!! No 'undo' function available yet !!! 23 23 24 It is re kommended to copy the tree before modifying it.24 It is recommended to copy the tree before modifying it. 25 25 26 26 BUGS no bugs -
branches/stable_5.0/HELP_SOURCE/oldhelp/tr_type_irs.hlp
r2986 r6142 24 24 25 25 DESCRIPTION Trees can be displayed as dendrograms or radial trees. 26 Dendograms have two styles: The normal style and the 27 IRS style. 26 27 Dendrograms have two styles: 28 * The normal style and 29 * the IRS style. 30 28 31 To display the IRS style dendrogram press the third small button 29 32 below the tree_name in the top area. -
branches/stable_5.0/HELP_SOURCE/oldhelp/trans_anal.hlp
r2986 r6142 10 10 11 11 #************* Title of helpfile !! and start of real helpfile ******** 12 TITLE Transversion Analyses12 TITLE Transversion analysis 13 13 14 14 OCCURRENCE in all filter windows -
branches/stable_5.0/HELP_SOURCE/oldhelp/translate_dna_2_pro.hlp
r5600 r6142 43 43 44 44 2. Select reading frame by pressing the 'Start position' button 45 and selecting first, second or third absolut position.45 and selecting first, second or third absolute position. 46 46 Alternatively you can position the cursor in ARB_EDIT4 at start 47 47 of the reading frame. -
branches/stable_5.0/HELP_SOURCE/oldhelp/tree2file.hlp
r2986 r6142 49 49 Total Tree = Full tree 50 50 51 Select a file name from the 'Directories and Files' subwindow 52 or type itto the 'File Name' subwindow.51 Select a file name from the 'Directories and Files' subwindow or type it 52 to the 'File Name' subwindow. 53 53 54 54 Save and/or edit the data: … … 57 57 'Export TREE TO FILE' window 58 58 59 - SAVE: exports the data59 - SAVE: 60 60 61 - S & XFIG Writes the data to the speci- 62 fied file and edits the file. 63 (xfig language has to selected) 61 exports the data 64 62 65 - S & GHOST Writes the data to the speci- 66 fied file and displays the 67 preview. (postscript language 68 has to be selected). The 69 previewer allows tree printing. 63 - S & XFIG 64 65 Writes the data to the specified file and edits the file. 66 (xfig language has to selected) 67 68 - S & GHOST 69 70 Writes the data to the specified file and displays the 71 preview. (postscript language has to be selected). The 72 previewer allows tree printing. 70 73 71 74 -
branches/stable_5.0/HELP_SOURCE/oldhelp/trm_del.hlp
r2986 r6142 9 9 10 10 #************* Title of helpfile !! and start of real helpfile ******** 11 TITLE Remove Zo ombies11 TITLE Remove Zombies 12 12 13 OCCURRENCE ARB_NT/Tree/Remove Zo ombies13 OCCURRENCE ARB_NT/Tree/Remove Zombies 14 14 15 15 DESCRIPTION Removes 'deleted' species from the currently displayed tree. -
branches/stable_5.0/HELP_SOURCE/oldhelp/undo.hlp
r2986 r6142 22 22 - changing the cursor position in ARB_EDIT4 does not affect DB 23 23 - changing dialogs does _sometimes_ affect DB (this depends 24 on whether the value is temporary or permanent).24 on whether the value is save in properties or in the DB). 25 25 26 26 Note that there is only _one_ undo/redo queue for all applications -
branches/stable_5.0/HELP_SOURCE/oldhelp/version.hlp
r3614 r6142 19 19 1.0: 1993-94 Openwin Version 20 20 21 2.0.0b Jun i95 Full Motif Version,21 2.0.0b June 95 Full Motif Version, 22 22 Phylip included, 23 23 Final database but untested … … 28 28 save/load branch labels to NEWICK Format 29 29 30 2.1.0 Nov GDE editor can save30 2.1.0 November GDE editor can save 31 31 NEW ALI editor from Niels, Fogt ... 32 32 a lot of bug fixes: … … 34 34 - recover from corrupt database 35 35 ... 36 2.1.1 Jan GDE is working now37 compress matrixes is possible36 2.1.1 January 96 GDE is working now 37 compressing matrices is possible 38 38 39 April Vacation 40 41 Mai Save Changes as 39 May Save Changes as 42 40 Parsimony inserts species sorted by sequence length 43 41 bug fixes: - import by readseq improved … … 58 56 bug fix: probes for groups 59 57 60 2.4b O ktober Tags implemented, Tags can be used to subdivide fields58 2.4b October Tags implemented, Tags can be used to subdivide fields 61 59 resize of most windows does work 62 60 … … 68 66 December Linux Version 69 67 70 Januar Macros68 January 97 Macros 71 69 72 70 February One major bug fixed in the database system … … 79 77 Merge preserves alignment 80 78 81 Feb '99ARB_EDIT4 now is the default editor.79 February 99 ARB_EDIT4 now is the default editor. 82 80 Code for amino-DNA-translation/realignment 83 81 completely rewritten. -
branches/stable_5.0/HELP_SOURCE/oldhelp/visualizeSAI.hlp
r1660 r6142 9 9 10 10 #************* Title of helpfile !! and start of real helpfile ******** 11 TITLE Visuali sation of Sequence Associated Information (SAI) in Primary and Secondary Editors.11 TITLE Visualization of Sequence Associated Information (SAI) in Primary and Secondary Editors. 12 12 13 13 OCCURRENCE In Sequence Editors - Primary Editor (ARB_EDIT4) and Secondary Editor 14 14 15 DESCRIPTION This function can be used to Visualise Sequence Associated Informations (SAI) in the Primary Structure and Secondary Structure Editor windows. 15 DESCRIPTION 16 17 This function can be used to Visualize Sequence Associated Information (SAI) 18 in the Primary Structure and Secondary Structure Editor windows. 16 19 17 Steps to use VISUALI SATION of SAIs in Primary Structure Editor:20 Steps to use VISUALIZATION of SAIs in Primary Structure Editor: 18 21 19 1. Select SAI to be visualised from the SAI list (all SAIs present in the ARB Database). 20 2. Select the Color Translation Table (CTT) in the CTT list, if found. Or create one by pressing CREATE button. You can also copy the existing CTT and modify. 21 3. Once CTT is created, define desired colors (RANGE 0 to RANGE 9) for the respective characters in the selected SAI to paint as background of the sequence. 22 4. You can also change the COLOR RANGE by going to PROPERTIES->CHANGE COLORS AND FONTS menu. 23 5. Then, choose the visualisation options. You can opt to visualise only MARKED species or ALL species in the primary editor. 24 6. Finally, be sure to check ENABLE VISUALISATION check box. 22 1. Select SAI to be visualized from the SAI list (all SAIs present in the 23 ARB Database). 25 24 26 If Color Translation Tables were defined for each existing/displayed SAIs in the Primary Editor, one can navigate through different SAIs in the editor and visulaize the same instantly. To enable this feature, AUTOSELECT SAI should be enabled in Visualize SAI window (VIEW->VISUALIZE SAIs menu). 25 2. Select the Color Translation Table (CTT) in the CTT list, if found. Or 26 create one by pressing CREATE button. You can also copy the existing CTT 27 and modify. 27 28 28 Sequence Associated Information can also be visualised in Secondary Structure Editor. 29 3. Once CTT is created, define desired colors (RANGE 0 to RANGE 9) for the 30 respective characters in the selected SAI to paint as background of the 31 sequence. 32 33 4. You can also change the COLOR RANGE by going to PROPERTIES->CHANGE 34 COLORS AND FONTS menu. 35 36 5. Then, choose the visualization options. You can opt to visualize only 37 MARKED species or ALL species in the primary editor. 38 39 6. Finally, be sure to check ENABLE VISUALIZATION check box. 40 41 If Color Translation Tables were defined for each existing/displayed SAIs in 42 the Primary Editor, one can navigate through different SAIs in the editor and 43 visualize the same instantly. To enable this feature, AUTOSELECT SAI should be 44 enabled in Visualize SAI window (VIEW->VISUALIZE SAIs menu). 45 46 Sequence Associated Information can also be visualized in Secondary Structure 47 Editor. 29 48 30 To Visualise SAI in Secondary Structure editor window - Go to PROPERTIES menu, click on CHANGE DISPLAY sub-menu and select Visulaise SAI check box. 49 To Visualize SAI in Secondary Structure editor window - Go to PROPERTIES 50 menu, click on CHANGE DISPLAY sub-menu and select the 'Visualize SAI' check 51 box. 31 52 32 You can also change the colors used to display SAIs by going to PROPERTIES->CHANGE COLORS AND FONTS menu in the Secondary Editor Window. 53 You can also change the colors used to display SAIs by going to 54 PROPERTIES->CHANGE COLORS AND FONTS menu in the Secondary Editor Window. 33 55 34 NOTES If SAIs are to be visualised in Secondary Structure Editor window, one should select SAI, define CTT and check ENABLE VISUALISATION check box in Primary structure editor window using VISUALISE SAI function (under VIEW menu in PRIMARY EDITOR). 56 NOTES If SAIs are to be visualized in Secondary Structure Editor window, one should 57 select SAI, define CTT and check ENABLE VISUALIZATION check box in Primary 58 structure editor window using VISUALIZE SAI function (under VIEW menu in 59 PRIMARY EDITOR). 35 60 36 Inorder to retain the settings of CTT and associated SAIs, one should save the properties by going to PROPERTIES->SAVE PROPERTIES menu in primary editor. Plese note that the CTT definitions are stored in the local file (.arb_prop/edit4.arb) and deleting or modifying this file will lose all the information about CTT definitions used for visualization of SAIs for future sessions. 61 In order to retain the settings of CTT and associated SAIs, one should save 62 the properties by going to PROPERTIES->SAVE PROPERTIES menu in primary 63 editor. Please note that the CTT definitions are stored in the local file 64 (.arb_prop/edit4.arb) and deleting or modifying this file will lose all the 65 information about CTT definitions used for visualization of SAIs for future 66 sessions. 37 67 38 68 EXAMPLES None -
branches/stable_5.0/HELP_SOURCE/oldhelp/vn_search.hlp
r1444 r6142 15 15 16 16 DESCRIPTION Allow the user to select a appropriate valid name from the list 17 of available names manually. This is nec cessary because the automatic suggestion works17 of available names manually. This is necessary because the automatic suggestion works 18 18 only for 100% identical entries. A preselection from the list of all 19 19 available names can be made by giving any number of initial characters. 20 20 A name selection in the list can then assigned to the current selected species 21 and is written to the fiel s Valid_Names/NameString, description type then is manually.21 and is written to the fields Valid_Names/NameString, description type then is manually. 22 22 23 23 -
branches/stable_5.0/HELP_SOURCE/oldhelp/vn_suggest.hlp
r1444 r6142 15 15 16 16 DESCRIPTION Looks in the list of valid names for perfect matching entry with a species full name. 17 Either a valid name, a he ronym, a homonym or change of name.17 Either a valid name, a heteronym, a homonym or change of name. 18 18 On matching the the valid name is written to a new database container 19 19 called Valid_Name in the field NameString. A second field of this container called DescType 20 20 tells about the species full name's status. I.e. whether it is the valid name, a heteronym, 21 a homonym or mis pelled. Three letters indicate species or genus, and three letter the status.21 a homonym or misspelled. Three letters indicate species or genus, and three letter the status. 22 22 23 23 NOTES Subspecies are not taken into account yet. -
branches/stable_5.0/HELP_SOURCE/oldhelp/write_field_list.hlp
r2986 r6142 41 41 42 42 43 WARNINGS Ex ept for the 'name' field, there are no different protection43 WARNINGS Except for the 'name' field, there are no different protection 44 44 levels for different fields. Take care not to write to fields 45 45 which should contain unique entries for the corresponding -
branches/stable_5.0/Makefile
r6122 r6142 26 26 # The ARB source code is aware of the following defines: 27 27 # 28 # NDEBUG doesn t compile the DEBUG sections28 # NDEBUG doesn't compile the DEBUG sections 29 29 # DEVEL_$(DEVELOPER) developer-dependent flag (enables you to have private sections in code) 30 30 # DEVELOPER='ANY' (default setting) will be ignored … … 193 193 194 194 cflags += -pipe 195 cflags += -fmessage-length=0# don t wrap compiler output195 cflags += -fmessage-length=0# don't wrap compiler output 196 196 cflags += -funit-at-a-time 197 197 cflags += -fPIC … … 242 242 243 243 GL_LIBS:=# no opengl -> no libs 244 GL:=# don t build ARB openGL libs244 GL:=# don't build ARB openGL libs 245 245 246 246 endif … … 366 366 @echo ' modified - rebuild files modified in svn checkout (touches files!)' 367 367 @echo '' 368 @echo 'Internal maint ainance:'368 @echo 'Internal maintenance:' 369 369 @echo '' 370 370 @echo ' release - build a release (increases minor version number)' … … 939 939 940 940 #*************************************************************************************** 941 # Recursive calls to sub makefiles941 # Recursive calls to sub-makefiles 942 942 #*************************************************************************************** 943 943 -
branches/stable_5.0/PERL2ARB/DOC.html
r2273 r6142 53 53 ... 54 54 ARB:commit_transaction($gb_main); // everything is ok 55 $error = ARB::save($gb_main,"new_db.arb", "a"); // save in ascii f rmt55 $error = ARB::save($gb_main,"new_db.arb", "a"); // save in ascii format 56 56 57 57 ***************************** END 1 ********************* … … 253 253 a ascii format 254 254 b binary format 255 Only if you have opened a database on a file you r are allowd to255 Only if you have opened a database on a file you are allowed to 256 256 save it, otherwise the server has to do it. 257 257 You may not change the path of the database, it is used … … 267 267 268 268 $error = ARB::save_quick_as($gb_main,"new path"); 269 Fake an existing database by create a symboli klink and269 Fake an existing database by create a symbolic link and 270 270 then call ARB::save_quick 271 271 … … 287 287 Increments an internal counter. If the counter was previously 288 288 0 then calls begin_transaction. This is usefull when working 289 in a s oubroutine and not knowing whether your calling funtion289 in a subroutine and not knowing whether your calling function 290 290 had opened a transaction already. 291 291 $error = ARB::pop_transaction($gb_main); … … 313 313 search a database element if all keys are unique 314 314 315 $gb_xxx = ARB::find($gb_start_s ourch_point, "[key]", "[value]",315 $gb_xxx = ARB::find($gb_start_search_point, "[key]", "[value]", 316 316 "search_mode" 317 317 … … 344 344 $val = ARB::read_bits($gb_xxx,char_0,char_1); 345 345 convert a bit array into a string, 346 a '0' will be converte tinto char_0346 a '0' will be converted into char_0 347 347 a '1' into char_1 348 348 … … 362 362 // char_0 will converted to 1 else 0 363 363 364 $error = ARB::write_as_string($gb_xxx); try to interpret ethe value and364 $error = ARB::write_as_string($gb_xxx); try to interpret the value and 365 365 // convert it automatically to the right 366 366 // format … … 422 422 $error = ARB::set_temporary($gb_xxx); 423 423 Marks a field in the database as a temporary field. 424 That means that this fiel sis never saved to a file.424 That means that this field is never saved to a file. 425 425 $error = ARB::clear_temporary($gb_xxx); 426 426 Clears tmp flag … … 502 502 $time = ARB::last_saved_clock($gb_main); 503 503 transaction number when the database was last saved 504 Can only be called from the server program m504 Can only be called from the server program 505 505 506 506 $time = ARB::last_saved_time($gb_main); … … 509 509 $error = ARB::set_cache_size($gb_main, "size_in_bytes"); 510 510 ARB uses datacompression for long strings. If some strings 511 are used very intens ivly the program bay slow down.511 are used very intensely the program may slow down. 512 512 Therefor a small cache is used and it's size can be set 513 513 by this function. If you are working with sequences, a value -
branches/stable_5.0/arb_CHANGES.txt
r6111 r6142 26 26 - Distance matrix (arb_dist): mark by distance to selected 27 27 - ARB core 28 * many bugfixes and improvements to reliabil ty28 * many bugfixes and improvements to reliability 29 29 * faster sorting (general speedup) 30 30 * improved sequence compression (avoid worse trees, better ratio) … … 69 69 - NDS-display of groups (e.g. in tree) is now handled by ACI-command 'taxonomy'. This gives 70 70 several new possibilities: 71 * export taxono ny via 'Export NDS list'71 * export taxonomy via 'Export NDS list' 72 72 * display taxonomy in Editor etc. 73 73 * display of cascaded taxonomies … … 140 140 - Binary SAIs are editable in ARB_EDIT4 141 141 - Information windows are detachable (allows to have multiple windows showing different items) 142 - Scanning for hidden/unknown database fields improved and sep erated;142 - Scanning for hidden/unknown database fields improved and separated; 143 143 possibility to remove unused fields. 144 144 - new tabbed format in 'Export NDS' and 'Export matrix' (useful for star-calc/excel/etc.) -
branches/stable_5.0/arb_INSTALL.txt
r6059 r6142 16 16 17 17 * the detailed list of packets to install for ARB: arb_UBUNTU.txt 18 * the package-install-s kript for ubuntu: SH/arb_installubuntu4arb.sh18 * the package-install-script for ubuntu: SH/arb_installubuntu4arb.sh 19 19 20 20 -------------------------------------------------------------------------------- -
branches/stable_5.0/arb_LICENSE.txt
r5431 r6142 180 180 181 181 convert_aln -- an alignment(or sequence) converter written by Wen-Min Kuan 182 for the Ribsomal Database Project(RDP), April 28, 1992. 183 184 185 186 TREETOOL 187 188 Written by Mike Maciukenas, at the RDP, with design and 189 implementation guidance by Gary Olsen, Niels Larsen, Carl 190 Woese. 191 192 Copyright (c) 1991, University of Illinois board of 193 trustess. All rights reserved. 194 195 Treetool is a copyrighted program, not in the public 196 domain. It is provided free of charge, and permission is 197 granted to copy and dirstribute, provided that it is not done 198 for profit, and that all copyright messages remain present and 199 intact. 182 for the Ribosomal Database Project(RDP), April 28, 1992. 200 183 201 184 -
branches/stable_5.0/arb_README.txt
r6042 r6142 61 61 Change your .cshrc/.profile files: 62 62 63 Set the enviro ment variable ARBHOME63 Set the environment variable ARBHOME 64 64 to the ARB installation directory 65 65 Append $ARBHOME/bin to your PATH -
branches/stable_5.0/arb_UBUNTU.txt
r6097 r6142 58 58 59 59 [Note:] 60 You may use the provided install s kript, e.g.60 You may use the provided install script, e.g. 61 61 sudo SH/arb_installubuntu4arb.sh -
branches/stable_5.0/doc/a2ps.README
r5390 r6142 1 1 This is version 4.3 of a2ps, a program to format an ascii file for 2 printing in a postcript printer. As the copyright indicates, this2 printing on a postscript printer. As the copyright indicates, this 3 3 distribution can be freely redistributed. 4 4 … … 27 27 use in general 11.0 x 8.5. 28 28 b) Total lateral (left+right) or vertical (top+bottom) margins. It must 29 be also a real constant, specifying inch s (by default 1.2).29 be also a real constant, specifying inches (by default 1.2). 30 30 - MARGIN 31 31 c) Directory separator (by default '/') -
branches/stable_5.0/etc/files
r5390 r6142 2 2 DIRECTORIES 3 3 4 bin binaries: arb _programms and links to DEPOT4 bin binaries: arb programs and external tools 5 5 6 6 SH /bin/sh commands 7 7 8 DEPOT external programms (phylip blast ..)9 DEPOT/xfig xfig10 DEPOT/ghostview11 DEPOT/phylip12 DEPOT/etc13 DEPOT/gde14 15 8 GDEHELP GDE help Files and menus 16 9 17 man manuals, but not for man 18 Xlib X11 libraries 19 20 lib All libraries 21 lib/pts The pt_server files 10 lib Shared libraries 11 lib/pts The PT_server files 22 12 lib/nas The name server files 23 lib/pictures All xfig background graphics13 lib/pictures All xfig window layouts 24 14 lib/pixmaps All pixmaps 25 lib/arb_prop Default defaults15 lib/arb_prop Default properties 26 16 lib/submit submission forms 27 lib/help all arb help files 17 lib/help ARB help files 18 lib/help_html HTML version of ARB help 28 19 29 20 -
branches/stable_5.0/lib/pictures/RNA3D_Help.fig
r3948 r6142 199 199 6 990 6885 7020 7110 200 200 4 2 -1 0 0 18 12 0.0000 4 165 450 7020 7065 $help\001 201 4 0 -1 0 0 2 14 0.0000 4 165 5400 990 7020 For detailed help regarding respective di play buttons click \001201 4 0 -1 0 0 2 14 0.0000 4 165 5400 990 7020 For detailed help regarding respective display buttons click \001 202 202 -6 203 203 2 1 0 1 0 7 50 0 -1 0.000 0 0 -1 0 0 1 … … 220 220 4 0 -1 0 0 0 13 0.0000 4 165 4410 2925 4365 : Redraws the structure with new settings/changes\001 221 221 4 0 -1 0 0 0 13 0.0000 4 165 3960 2925 4005 : Removes the cut / Displays entire molecule\001 222 4 0 -1 0 0 0 13 0.0000 4 150 4320 2925 3645 : Cuts the molecule at the cent refor clear view\001222 4 0 -1 0 0 0 13 0.0000 4 150 4320 2925 3645 : Cuts the molecule at the center for clear view\001 223 223 4 0 -1 0 0 0 13 0.0000 4 165 3600 2925 3285 : DISABLEs the respective display option\001 224 224 4 0 -1 0 0 0 13 0.0000 4 165 3510 2925 2925 : ENABLEs the respective display option\001 -
branches/stable_5.0/lib/pictures/ad_ext.fig
r1670 r6142 32 32 4 2 -1 0 0 18 13 0.0000 4 195 990 6600 2925 $to:X:copy\001 33 33 4 0 -1 0 0 18 12 0.0000 4 165 915 4800 3375 $X:remark\001 34 4 1 -1 0 0 18 15 0.0000 4 225 3660 3750 1125 Sequence Associated Information s\00134 4 1 -1 0 0 18 15 0.0000 4 225 3660 3750 1125 Sequence Associated Information\001 35 35 4 2 -1 0 0 18 13 0.0000 4 180 825 4575 4800 $to:X:list\001 -
branches/stable_5.0/lib/pictures/arb_intro.fig
r6014 r6142 35 35 4 0 -1 0 0 18 12 0.0000 4 195 840 9150 10440 $Y:expert\001 36 36 4 0 -1 0 0 18 12 0.0000 4 180 420 1500 5865 $box\001 37 4 0 -1 0 0 18 12 0.0000 4 195 2970 1500 5340 Existing Files (f) and Direc ories (D)\00137 4 0 -1 0 0 18 12 0.0000 4 195 2970 1500 5340 Existing Files (f) and Directories (D)\001 38 38 4 0 -1 0 0 18 12 0.0000 4 180 540 1620 10395 $Y:old\001 39 39 4 0 -1 0 0 18 12 0.0000 4 180 540 4725 10388 $Y:del\001 -
branches/stable_5.0/lib/pictures/awt/col_statistic.fig
r2 r6142 5 5 4 0 18 12 0 -1 0 0.00000 4 15 38 99 69 $close 6 6 4 2 18 12 0 -1 0 0.00000 4 15 31 499 69 $help 7 4 1 18 12 0 -1 0 0.00000 4 15 188 299 79 Use COL OUMN STATISTIC (CSP)7 4 1 18 12 0 -1 0 0.00000 4 15 188 299 79 Use COLUMN STATISTIC (CSP) 8 8 4 1 18 12 0 -1 0 0.00000 4 15 252 299 97 to estimate G+C, rates, TT-ratio and weights 9 9 4 0 18 12 0 -1 0 0.00000 4 15 28 89 159 $box … … 13 13 4 0 18 12 0 -1 0 0.00000 4 15 185 99 134 Select a CSP from the database: 14 14 4 0 18 12 0 -1 0 0.00000 4 15 34 94 519 $helix 15 4 0 18 12 0 -1 0 0.00000 4 15 359 94 314 col oumn. This results in a great variance, which can be avoided15 4 0 18 12 0 -1 0 0.00000 4 15 359 94 314 column. This results in a great variance, which can be avoided 16 16 4 0 18 12 0 -1 0 0.00000 4 15 205 94 334 by smoothing the parameter values. -
branches/stable_5.0/lib/pictures/awt/parser.fig
r2 r6142 21 21 4 1 18 12 0 -1 0 0.00000 4 15 101 179 122 contents of fields. 22 22 4 1 18 12 0 -1 0 0.00000 4 15 50 179 140 You can: 23 4 1 18 12 0 -1 0 0.00000 4 15 125 179 158 * subs itute substrings23 4 1 18 12 0 -1 0 0.00000 4 15 125 179 158 * substitute substrings 24 24 4 1 18 12 0 -1 0 0.00000 4 15 145 179 176 *copy one field to another 25 25 4 1 18 12 0 -1 0 0.00000 4 15 124 179 212 sequence information -
branches/stable_5.0/lib/pictures/consensus/max_freq.fig
r570 r6142 4 4 319 399 319 39 79 39 79 399 319 399 9999 9999 5 5 4 2 18 12 0 -1 0 0.00000 4 15 31 314 64 $help 6 4 1 18 12 0 -1 0 0.00000 4 15 157 199 89 For each col oumn calculate6 4 1 18 12 0 -1 0 0.00000 4 15 157 199 89 For each column calculate 7 7 4 1 18 12 0 -1 0 0.00000 4 15 197 199 107 the frequency of the most frequent 8 8 4 1 18 12 0 -1 0 0.00000 4 15 59 199 125 character. -
branches/stable_5.0/lib/pictures/conservProfile2Gnuplot.fig
r1463 r6142 10 10 6 1710 5445 6030 6705 11 11 4 0 -1 0 0 2 10 0.0000 4 105 840 5175 5580 MAXIMUM\001 12 4 0 -1 0 0 2 10 0.0000 4 105 975 3330 5580 MINIMUM M\00112 4 0 -1 0 0 2 10 0.0000 4 105 975 3330 5580 MINIMUM\001 13 13 4 0 -1 0 0 18 12 0.0000 4 165 600 4950 6075 $maxX\001 14 14 4 0 -1 0 0 18 12 0.0000 4 165 600 4950 6660 $maxY\001 -
branches/stable_5.0/lib/pictures/cpro/csp_2_gnuplot.fig
r569 r6142 15 15 9045 11790 16 16 4 0 -1 0 0 18 12 0.0000 4 165 570 1350 975 $close\001 17 4 0 -1 0 0 18 12 0.0000 4 180 2625 1425 1425 Select your col oumn statistic\00117 4 0 -1 0 0 18 12 0.0000 4 180 2625 1425 1425 Select your column statistic\001 18 18 4 0 -1 0 0 18 12 0.0000 4 180 420 1350 1800 $csp\001 19 19 4 1 -1 0 0 18 12 0.0000 4 165 540 4200 9000 $save\001 -
branches/stable_5.0/lib/pictures/di_ge_ma.fig
r5416 r6142 59 59 4 0 -1 0 0 18 12 0.0000 4 135 570 6000 5400 enable\001 60 60 4 0 -1 0 0 18 12 0.0000 4 135 1395 1275 4800 Exclude Column\001 61 4 0 -1 0 0 18 12 0.0000 4 180 1845 1275 4200 Weig ths/Rates/GC ...\00161 4 0 -1 0 0 18 12 0.0000 4 180 1845 1275 4200 Weights/Rates/GC ...\001 62 62 4 0 -1 0 0 18 12 0.0000 4 135 450 1275 3600 Filter\001 63 63 4 0 -1 0 0 18 12 0.0000 4 165 1065 3975 6750 $autodetect\001 -
branches/stable_5.0/lib/pictures/edit4/search.fig
r4384 r6142 28 28 6 5700 6975 9075 7650 29 29 4 0 -1 0 0 0 10 0.0000 4 165 3060 5700 7200 Use '?' as single letter wildcard \001 30 4 0 -1 0 0 0 10 0.0000 4 165 4950 5700 7425 Use ',' or newline as sep erator between search patterns\00130 4 0 -1 0 0 0 10 0.0000 4 165 4950 5700 7425 Use ',' or newline as separator between search patterns\001 31 31 4 0 -1 0 0 0 10 0.0000 4 165 3960 5700 7650 '#' initiates a comment for a search pattern\001 32 32 -6 -
branches/stable_5.0/lib/pictures/gde2item.fig
r2 r6142 19 19 4 0 18 13 0 -1 0 0.00000 4 15 37 79 264 Filter: 20 20 4 0 18 13 0 -1 0 0.00000 4 15 70 129 269 $filtername 21 4 0 18 12 0 -1 0 0.00000 4 15 94 49 224 COL OMNFILTER21 4 0 18 12 0 -1 0 0.00000 4 15 94 49 224 COLUMNFILTER 22 22 4 0 18 12 0 -1 0 0.00000 4 15 77 49 339 PARAMETER 23 23 4 0 18 13 0 -1 0 0.00000 4 15 89 404 229 $compression -
branches/stable_5.0/lib/pictures/gde3item.fig
r4041 r6142 11 11 4 0 18 13 0 -1 0 0.00000 4 15 37 79 239 Filter: 12 12 4 0 18 13 0 -1 0 0.00000 4 15 70 129 244 $filtername 13 4 0 18 12 0 -1 0 0.00000 4 15 94 49 199 COL OMNFILTER13 4 0 18 12 0 -1 0 0.00000 4 15 94 49 199 COLUMNFILTER 14 14 -6 15 15 6 294 189 494 239 -
branches/stable_5.0/lib/pictures/join_species.fig
r1155 r6142 17 17 4 1 -1 0 0 18 14 0.0000 4 210 6135 4800 2025 joins all marked species which have the same value in field:\001 18 18 4 0 -1 0 0 18 12 0.0000 4 135 525 1575 2625 FIELD\001 19 4 0 -1 0 0 18 12 0.0000 4 180 2865 4770 3015 Sep erate database entries with:\00119 4 0 -1 0 0 18 12 0.0000 4 180 2865 4770 3015 Separate database entries with:\001 20 20 4 0 -1 0 0 18 12 0.0000 4 180 495 4770 3415 $sym\001 21 21 4 0 -1 0 0 18 12 0.0000 4 180 735 5985 3420 $to:sym\001 22 4 0 -1 0 0 18 12 0.0000 4 180 2220 4770 3815 Sep rate sequences with:\00122 4 0 -1 0 0 18 12 0.0000 4 180 2220 4770 3815 Separate sequences with:\001 23 23 4 0 -1 0 0 18 12 0.0000 4 180 810 4770 4215 $symseq\001 24 24 4 0 -1 0 0 18 12 0.0000 4 180 1050 5985 4215 $to:symseq\001 -
branches/stable_5.0/lib/pictures/merge/mg_mergetaggedfield.fig
r2 r6142 12 12 4 0 18 12 0 -1 0 0.00000 4 15 109 89 514 Tag Name of Field1 13 13 4 0 18 12 0 -1 0 0.00000 4 15 109 369 514 Tag Name of Field2 14 4 0 18 12 0 -1 0 0.00000 4 15 104 109 114 Fi ieldname of DB114 4 0 18 12 0 -1 0 0.00000 4 15 104 109 114 Fieldname of DB1 15 15 4 0 18 12 0 -1 0 0.00000 4 15 101 394 114 Fieldname of DB2 16 16 4 0 18 12 0 -1 0 0.00000 4 15 45 89 144 $fields1 -
branches/stable_5.0/lib/pictures/pars/kernlin.fig
r6089 r6142 94 94 4 0 18 12 0 -1 0 0.00000 4 15 39 239 384 $static 95 95 4 0 18 12 0 -1 0 0.00000 4 15 298 54 174 Number of randomly chosen nodes from the subtree 96 4 0 18 12 0 -1 0 0.00000 4 15 166 54 379 Enable static path reduction:96 4 0 18 12 0 -1 0 0.00000 4 15 166 54 379 Enable static path reduction: 97 97 4 0 18 12 0 -1 0 0.00000 4 15 119 69 414 Pathes in each depth 98 98 4 0 18 12 0 -1 0 0.00000 4 15 84 69 529 Relative Costs … … 104 104 4 0 0 10 0 -1 0 0.00000 4 12 40 74 629 start costs 105 105 4 0 18 10 0 -1 0 0.00000 4 12 28 74 659 $start 106 4 0 18 10 0 -1 0 0.00000 4 12 274 69 309 Each re kursion step multiplies the number of paths by 8106 4 0 18 10 0 -1 0 0.00000 4 12 274 69 309 Each recursion step multiplies the number of paths by 8 107 107 4 0 18 10 0 -1 0 0.00000 4 12 337 69 324 (e.g. depth = 8 -> ~16 million paths -> two heuristic path reductions) 108 108 4 0 18 10 0 -1 0 0.00000 4 12 257 69 189 ( 0.0 == no nodes, 1.0 all nodes, 2.0 all nodes twice) 109 109 4 0 18 12 0 -1 0 0.00000 4 15 180 54 484 Enable dynamic path reduction: 110 4 0 0 10 0 -1 0 0.00000 4 12 101 339 533 get rs worse than this line111 4 0 0 10 0 -1 0 0.00000 4 12 85 339 519 Stop re kursion if tree110 4 0 0 10 0 -1 0 0.00000 4 12 101 339 533 get's worse than this line 111 4 0 0 10 0 -1 0 0.00000 4 12 85 339 519 Stop recursion if tree 112 112 4 1 18 12 0 -1 0 0.00000 4 15 271 239 119 K.L. is a heuristic approach to find the best tree 113 113 4 0 18 12 0 -1 0 0.00000 4 15 236 54 254 If a better tree is found, increase depth by -
branches/stable_5.0/lib/pictures/pd_main.fig
r2823 r6142 45 45 4 0 -1 0 0 18 12 0.0000 4 135 1080 5925 4575 G+C-content\001 46 46 4 0 -1 0 0 18 12 0.0000 4 180 675 765 6075 $design\001 47 4 1 -1 0 0 18 12 0.0000 4 180 5670 5325 1440 This module searches for specific oligo nocleotids in the database. \00147 4 1 -1 0 0 18 12 0.0000 4 180 5670 5325 1440 This module searches for specific oligo-nucleotides in the database. \001 48 48 4 1 -1 0 0 18 12 0.0000 4 180 7185 5325 1710 Note: The PT_SERVER's (not the current) database is used searching probe targets!\001 49 49 4 0 -1 0 0 18 12 0.0000 4 180 465 2250 1050 $help\001 -
branches/stable_5.0/lib/pictures/seq_quality.fig
r5391 r6142 210 210 4 2 -1 0 0 18 13 0.0000 4 210 1020 6255 4410 $to:X:tree\001 211 211 4 0 -1 0 0 18 13 0.0000 4 210 525 1080 2745 $tree\001 212 4 0 -1 0 0 18 13 0.0000 4 210 4875 1080 2295 Select a tree to define groups to analy se (opt.):\001212 4 0 -1 0 0 18 13 0.0000 4 210 4875 1080 2295 Select a tree to define groups to analyze (opt.):\001 213 213 4 1 -1 0 0 2 18 0.0000 4 255 3210 3465 1575 Calculate sequence quality\001 214 214 4 2 -1 0 0 18 12 0.0000 4 195 510 6030 1080 $help\001 -
branches/stable_5.0/lib/pictures/unused/findcorr/bc_fa.fig
r2 r6142 23 23 2 2 0 1 -1 0 0 0 0.000 0 0 0 24 24 569 359 569 39 139 39 139 359 569 359 9999 9999 25 4 0 18 13 0 -1 0 0.00000 4 15 98 159 89 Standardi sation25 4 0 18 13 0 -1 0 0.00000 4 15 98 159 89 Standardization 26 26 4 2 18 13 0 -1 0 0.00000 4 15 74 549 94 $ztrafo_orig 27 27 4 0 18 13 0 -1 0 0.00000 4 15 172 159 219 z-Transformation of factors -
branches/stable_5.0/lib/pictures/unused/findcorr/bc_fat.fig
r2 r6142 22 22 4 0 18 13 0 -1 0 0.00000 4 15 77 79 239 Maximum of 23 23 4 0 18 13 0 -1 0 0.00000 4 15 134 79 259 summed Eigenvalues 24 4 0 18 13 0 -1 0 0.00000 4 15 92 79 299 comm unalities24 4 0 18 13 0 -1 0 0.00000 4 15 92 79 299 commonalities 25 25 4 0 18 13 0 -1 0 0.00000 4 15 79 79 159 Minimum of 26 26 4 0 18 13 0 -1 0 0.00000 4 15 137 79 279 Minimum of summed -
branches/stable_5.0/lib/pictures/unused/findcorr/bc_verb.fig
r2 r6142 15 15 4 0 18 13 0 -1 0 0.00000 4 17 107 99 239 (parameter room) 16 16 4 0 18 13 0 -1 0 0.00000 4 17 73 99 264 data matrix 17 4 0 18 13 0 -1 0 0.00000 4 17 103 99 224 covari nce matrix17 4 0 18 13 0 -1 0 0.00000 4 17 103 99 224 covariance matrix 18 18 4 0 18 13 0 -1 0 0.00000 4 17 74 99 304 covariances 19 19 4 0 18 13 0 -1 0 0.00000 4 17 148 99 344 transformation matrices … … 25 25 4 0 18 13 0 -1 0 0.00000 4 15 40 59 429 $close 26 26 4 1 18 13 0 -1 0 0.00000 4 15 31 239 89 $info 27 4 0 18 13 0 -1 0 0.00000 4 17 179 79 184 add tional commented output27 4 0 18 13 0 -1 0 0.00000 4 17 179 79 184 additional commented output 28 28 4 0 18 13 0 -1 0 0.00000 4 17 56 319 144 $verbose 29 29 4 0 18 13 0 -1 0 0.00000 4 17 115 79 139 additional verbose -
branches/stable_5.0/lib/pictures/unused/findcorr/bc_verb2.fig
r2 r6142 15 15 4 0 18 13 0 -1 0 0.00000 4 15 40 59 269 $close 16 16 4 0 18 13 0 -1 0 0.00000 4 17 16 279 169 no 17 4 0 18 13 0 -1 0 0.00000 4 17 179 79 199 add tional commented output17 4 0 18 13 0 -1 0 0.00000 4 17 179 79 199 additional commented output 18 18 4 0 18 13 0 -1 0 0.00000 4 17 20 259 199 on 19 19 4 2 18 13 0 -1 0 0.00000 4 17 65 384 229 $comment -
branches/stable_5.0/lib/pictures/unused/logo.fig
r5886 r6142 3 3 5 1 0 40 -1 7 0 0 0.000 0 0 0 404.720 279.720 304 279 333 209 404 179 4 4 6 79 279 559 319 5 4 0 6 23 0 0 3 0.00000 4 30 477 79 319 Development of a phylogenetic enviro ment5 4 0 6 23 0 0 3 0.00000 4 30 477 79 319 Development of a phylogenetic environment 6 6 -6 7 7 1 1 0 0 0 20 0 21 0.00000 1 0.000 459 219 120 60 459 219 579 279 -
branches/stable_5.0/lib/pictures/visualizeSAI.fig
r1654 r6142 199 199 4 0 -1 0 0 18 14 0.0000 4 195 975 1305 4050 $clrTrList\001 200 200 4 2 -1 0 0 18 14 0.0000 4 195 1260 5130 6165 $to:clrTrList\001 201 4 0 -1 0 0 2 14 0.0000 4 135 1545 1035 6705 Visuali se SAI for \001201 4 0 -1 0 0 2 14 0.0000 4 135 1545 1035 6705 Visualize SAI for \001 202 202 4 1 -1 0 0 18 13 0.0000 4 180 795 4635 6750 $marked\001 203 203 -6 -
branches/stable_5.0/util/arb_srclst.pl
r6116 r6142 237 237 my $matches = matchingExpr($str,@$regexp_arr_r); 238 238 if ($matches>0) { 239 if ($debug_matching!=0) { print "'$str' matches '".$$regexp_arr_r[$matches-1]."' => don t use!\n"; }239 if ($debug_matching!=0) { print "'$str' matches '".$$regexp_arr_r[$matches-1]."' => don't use!\n"; } 240 240 $$use_r = 0; 241 241 } -
branches/stable_5.0/util/arb_test_compresssion
r2 r6142 35 35 arb_2_ascii test.$1/$1_o2m.arb test.$1/$1_o2m_a.arb 36 36 37 echo ' reg anerate binary ascii'37 echo ' regenerate binary ascii' 38 38 arb_2_bin test.$1/$1_a.arb test.$1/$1_ab.arb 39 39 arb_2_ascii test.$1/$1_ab.arb test.$1/$1_aba.arb
