public final class Test {
private final static String PATH_TO_RESOURCES = System.getProperty( "user.dir" )
- + ForesterUtil.getFileSeparator() + "resources"
- + ForesterUtil.getFileSeparator();
+ + ForesterUtil.getFileSeparator() + "resources"
+ + ForesterUtil.getFileSeparator();
private final static String PATH_TO_TEST_DATA = System.getProperty( "user.dir" )
- + ForesterUtil.getFileSeparator() + "test_data"
- + ForesterUtil.getFileSeparator();
- private final static boolean PERFORM_DB_TESTS = false;
+ + ForesterUtil.getFileSeparator() + "test_data"
+ + ForesterUtil.getFileSeparator();
+ private final static boolean PERFORM_DB_TESTS = true;
private static final boolean PERFORM_WEB_TREE_ACCESS = true;
private static final String PHYLOXML_LOCAL_XSD = PATH_TO_RESOURCES + "phyloxml_schema/"
- + ForesterConstants.PHYLO_XML_VERSION + "/"
- + ForesterConstants.PHYLO_XML_XSD;
+ + ForesterConstants.PHYLO_XML_VERSION + "/"
+ + ForesterConstants.PHYLO_XML_XSD;
private static final String PHYLOXML_REMOTE_XSD = ForesterConstants.PHYLO_XML_LOCATION + "/"
- + ForesterConstants.PHYLO_XML_VERSION + "/"
- + ForesterConstants.PHYLO_XML_XSD;
+ + ForesterConstants.PHYLO_XML_VERSION + "/"
+ + ForesterConstants.PHYLO_XML_XSD;
private final static boolean USE_LOCAL_PHYLOXML_SCHEMA = true;
private final static double ZERO_DIFF = 1.0E-9;
public static void main( final String[] args ) {
System.out.println( "[Java version: " + ForesterUtil.JAVA_VERSION + " " + ForesterUtil.JAVA_VENDOR + "]" );
System.out.println( "[OS: " + ForesterUtil.OS_NAME + " " + ForesterUtil.OS_ARCH + " " + ForesterUtil.OS_VERSION
- + "]" );
+ + "]" );
Locale.setDefault( Locale.US );
System.out.println( "[Locale: " + Locale.getDefault() + "]" );
int failed = 0;
System.exit( -1 );
}
final long start_time = new Date().getTime();
-
-
-
- System.out.print( "MSA entropy: " );
- if ( Test.testMsaEntropy() ) {
- System.out.println( "OK." );
- succeeded++;
- }
- else {
- System.out.println( "failed." );
- failed++;
- }
System.out.print( "Basic node methods: " );
if ( Test.testBasicNodeMethods() ) {
System.out.println( "OK." );
System.out.println( "failed." );
failed++;
}
+ System.out.print( "MSA entropy: " );
+ if ( Test.testMsaEntropy() ) {
+ System.out.println( "OK." );
+ succeeded++;
+ }
+ else {
+ System.out.println( "failed." );
+ failed++;
+ }
if ( PERFORM_DB_TESTS ) {
System.out.print( "Uniprot Entry Retrieval: " );
if ( Test.testUniprotEntryRetrieval() ) {
System.out.println( phys[ 1 ].toNewHampshire() );
return false;
}
-
final URL u2 = new URL( s );
-
final Phylogeny[] phys2 = factory.create( u2.openStream(), new NHXParser() );
if ( ( phys2 == null ) || ( phys2.length != 5 ) ) {
return false;
}
}
catch ( final Exception e ) {
- System.out.println( e.toString());
+ System.out.println( e.toString() );
e.printStackTrace();
return false;
}
if ( !t3.getIdentifier().getProvider().equals( "treebank" ) ) {
return false;
}
+ if ( !t3.getNode( "root node" ).isDuplication() ) {
+ return false;
+ }
+ if ( !t3.getNode( "node a" ).isDuplication() ) {
+ return false;
+ }
+ if ( t3.getNode( "node a" ).isSpeciation() ) {
+ return false;
+ }
+ if ( t3.getNode( "node bc" ).isDuplication() ) {
+ return false;
+ }
+ if ( !t3.getNode( "node bc" ).isSpeciation() ) {
+ return false;
+ }
if ( !t3.getNode( "root node" ).getNodeData().getSequence().getType().equals( "protein" ) ) {
return false;
}
return false;
}
if ( t3_rt.getNode( "node bc" ).getNodeData().getSequence().getDomainArchitecture().getDomain( 0 )
- .getConfidence() != 2144 ) {
+ .getConfidence() != 0 ) {
return false;
}
if ( !t3_rt.getNode( "node bc" ).getNodeData().getSequence().getDomainArchitecture().getDomain( 0 ).getId()
}
if ( !ParserUtils.extractTaxonomyCodeFromNodeName( "BCL2_MOUSE function = 23445",
TAXONOMY_EXTRACTION.PFAM_STYLE_RELAXED )
- .equals( "MOUSE" ) ) {
+ .equals( "MOUSE" ) ) {
return false;
}
if ( !ParserUtils.extractTaxonomyCodeFromNodeName( "BCL2_MOUSE+function = 23445",
TAXONOMY_EXTRACTION.PFAM_STYLE_RELAXED )
- .equals( "MOUSE" ) ) {
+ .equals( "MOUSE" ) ) {
return false;
}
if ( !ParserUtils.extractTaxonomyCodeFromNodeName( "BCL2_MOUSE|function = 23445",
TAXONOMY_EXTRACTION.PFAM_STYLE_RELAXED )
- .equals( "MOUSE" ) ) {
+ .equals( "MOUSE" ) ) {
return false;
}
if ( ParserUtils.extractTaxonomyCodeFromNodeName( "BCL2_MOUSEfunction = 23445",
final String test_dir = Test.PATH_TO_TEST_DATA;
try {
final HmmscanPerDomainTableParser parser1 = new HmmscanPerDomainTableParser( new File( test_dir
- + ForesterUtil.getFileSeparator() + "hmmscan30b3_output_1" ), "MONBR", INDIVIDUAL_SCORE_CUTOFF.NONE );
+ + ForesterUtil.getFileSeparator() + "hmmscan30b3_output_1" ), "MONBR", INDIVIDUAL_SCORE_CUTOFF.NONE );
parser1.parse();
final HmmscanPerDomainTableParser parser2 = new HmmscanPerDomainTableParser( new File( test_dir
- + ForesterUtil.getFileSeparator() + "hmmscan30b3_output_2" ), "MONBR", INDIVIDUAL_SCORE_CUTOFF.NONE );
+ + ForesterUtil.getFileSeparator() + "hmmscan30b3_output_2" ), "MONBR", INDIVIDUAL_SCORE_CUTOFF.NONE );
final List<Protein> proteins = parser2.parse();
if ( parser2.getProteinsEncountered() != 4 ) {
return false;
l.add( s2 );
l.add( s3 );
final Msa msa = BasicMsa.createInstance( l );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 0 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 1 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 2 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 3 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 4 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 5 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 6 ) );
- System.out.println();
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 0 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 1 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 2 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 3 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 4 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 5 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 6 ) );
+ //TODO need to DO the tests!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
+ //FIXME
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 0 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 1 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 2 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 3 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 4 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 5 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa, 6 ) );
+ // System.out.println();
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 0 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 1 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 2 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 3 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 4 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 5 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 6, msa, 6 ) );
final List<MolecularSequence> l2 = new ArrayList<MolecularSequence>();
l2.add( BasicSequence.createAaSequence( "1", "AAAAAAA" ) );
l2.add( BasicSequence.createAaSequence( "2", "AAAIACC" ) );
l2.add( BasicSequence.createAaSequence( "21", "AAIIIIF" ) );
l2.add( BasicSequence.createAaSequence( "22", "AIIIVVW" ) );
final Msa msa2 = BasicMsa.createInstance( l2 );
- System.out.println();
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa2, 0 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa2, 1 ) );
- System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa2, 2 ) );
+ // System.out.println();
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa2, 0 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa2, 1 ) );
+ // System.out.println( MsaMethods.calcNormalizedShannonsEntropy( 20, msa2, 2 ) );
}
catch ( final Exception e ) {
e.printStackTrace( System.out );
return false;
}
if ( !isEqual( 0.48039661496919533, phylogenies[ 0 ].getNode( "Diadocidia_spinosula" )
- .getDistanceToParent() ) ) {
+ .getDistanceToParent() ) ) {
return false;
}
if ( !isEqual( 0.3959796191512233, phylogenies[ 0 ].getNode( "Diadocidia_stanfordensis" )
- .getDistanceToParent() ) ) {
+ .getDistanceToParent() ) ) {
return false;
}
if ( !phylogenies[ 0 ].getName().equals( "Family Diadocidiidae MLT (Imported_tree_0)" ) ) {
final Phylogeny[] p11 = factory.create( "(A,B11);(C,D11) (E,F11)\t(G,H11)", new NHXParser() );
final Phylogeny[] p12 = factory.create( "(A,B12) (C,D12) (E,F12) (G,H12)", new NHXParser() );
final Phylogeny[] p13 = factory.create( " ; (;A; , ; B ; 1 3 ; \n)\t ( \n ;"
- + " C ; ,; D;13;);;;;;;(;E;,;F;13 ;) ; "
- + "; ; ( \t\n\r\b; G ;, ;H ;1 3; ) ; ; ;",
- new NHXParser() );
+ + " C ; ,; D;13;);;;;;;(;E;,;F;13 ;) ; "
+ + "; ; ( \t\n\r\b; G ;, ;H ;1 3; ) ; ; ;",
+ new NHXParser() );
if ( !p13[ 0 ].toNewHampshireX().equals( "(';A;',';B;13;')" ) ) {
return false;
}
if ( !n7.toNewHampshire( true, PhylogenyNode.NH_CONVERSION_SUPPORT_VALUE_STYLE.IN_SQUARE_BRACKETS )
.equals( "'gks:dr-m4 \" ` `@:[]sadq04'" ) ) {
System.out.println( n7
- .toNewHampshire( true, PhylogenyNode.NH_CONVERSION_SUPPORT_VALUE_STYLE.IN_SQUARE_BRACKETS ) );
+ .toNewHampshire( true, PhylogenyNode.NH_CONVERSION_SUPPORT_VALUE_STYLE.IN_SQUARE_BRACKETS ) );
return false;
}
}
if ( !p11.toNewHampshireX().equals( "(('A: \"':0.2,B:0.3):0.5[&&NHX:B=91],C:0.1)root:0.1[&&NHX:B=100]" ) ) {
return false;
}
+ final Phylogeny p12 = factory.create( "((A:0.2,B:0.3):0.5[&&NHX:B=91],C:0.1)root:0.1[&&NHX:B=100]",
+ new NHXParser() )[ 0 ];
+ if ( !p12.toNewHampshireX().equals( "((A:0.2,B:0.3):0.5[&&NHX:B=91],C:0.1)root:0.1[&&NHX:B=100]" ) ) {
+ return false;
+ }
}
catch ( final Exception e ) {
e.printStackTrace( System.out );
}
final Phylogeny p2 = factory
.create( "(1[something_else(?)s,prob=0.9500000000000000e+00{}(((,p)rob_stddev=0.110000000000e+00,"
- + "prob_range={1.000000000000000e+00,1.000000000000000e+00},prob(percent)=\"100\","
- + "prob+-sd=\"100+-0\"]:4.129000000000000e-02[&length_mean=4.153987461671767e-02,"
- + "length_median=4.129000000000000e-02,length_95%HPD={3.217800000000000e-02,"
- + "5.026800000000000e-02}],2[&prob=0.810000000000000e+00,prob_stddev=0.000000000000000e+00,"
- + "prob_range={1.000000000000000e+00,1.000000000000000e+00},prob(percent)=\"100\","
- + "prob+-sd=\"100+-0\"]:6.375699999999999e-02[&length_mean=6.395210411945065e-02,"
- + "length_median=6.375699999999999e-02,length_95%HPD={5.388600000000000e-02,"
- + "7.369400000000000e-02}])",
- new NHXParser() )[ 0 ];
+ + "prob_range={1.000000000000000e+00,1.000000000000000e+00},prob(percent)=\"100\","
+ + "prob+-sd=\"100+-0\"]:4.129000000000000e-02[&length_mean=4.153987461671767e-02,"
+ + "length_median=4.129000000000000e-02,length_95%HPD={3.217800000000000e-02,"
+ + "5.026800000000000e-02}],2[&prob=0.810000000000000e+00,prob_stddev=0.000000000000000e+00,"
+ + "prob_range={1.000000000000000e+00,1.000000000000000e+00},prob(percent)=\"100\","
+ + "prob+-sd=\"100+-0\"]:6.375699999999999e-02[&length_mean=6.395210411945065e-02,"
+ + "length_median=6.375699999999999e-02,length_95%HPD={5.388600000000000e-02,"
+ + "7.369400000000000e-02}])",
+ new NHXParser() )[ 0 ];
if ( p2.getNode( "1" ) == null ) {
return false;
}
// J. of Comput Bio. Vol. 4, No 2, pp.177-187
final Phylogeny species6 = factory
.create( "(((1:[&&NHX:S=1],5:[&&NHX:S=5])1-5,((4:[&&NHX:S=4],6:[&&NHX:S=6])4-6,2:[&&NHX:S=2])4-6-2)1-5-4-6-2,"
- + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
- new NHXParser() )[ 0 ];
+ + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
+ new NHXParser() )[ 0 ];
final Phylogeny gene6 = factory
.create( "(((1:0.1[&&NHX:S=1],2:0.1[&&NHX:S=2])1-2:0.1,3:0.1[&&NHX:S=3])1-2-3:0.1,"
- + "((4:0.1[&&NHX:S=4],(5:0.1[&&NHX:S=5],6:0.1[&&NHX:S=6])5-6:0.1)4-5-6:0.1,"
- + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],9:0.1[&&NHX:S=9])8-9:0.1)7-8-9:0.1)4-5-6-7-8-9:0.1)r;",
- new NHXParser() )[ 0 ];
+ + "((4:0.1[&&NHX:S=4],(5:0.1[&&NHX:S=5],6:0.1[&&NHX:S=6])5-6:0.1)4-5-6:0.1,"
+ + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],9:0.1[&&NHX:S=9])8-9:0.1)7-8-9:0.1)4-5-6-7-8-9:0.1)r;",
+ new NHXParser() )[ 0 ];
species6.setRooted( true );
gene6.setRooted( true );
final SDI sdi6 = new SDI( gene6, species6 );
}
final Phylogeny species6 = factory
.create( "(((1:[&&NHX:S=1],5:[&&NHX:S=5])1-5,((4:[&&NHX:S=4],6:[&&NHX:S=6])4-6,2:[&&NHX:S=2])4-6-2)1-5-4-6-2,"
- + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
- new NHXParser() )[ 0 ];
+ + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
+ new NHXParser() )[ 0 ];
final Phylogeny gene6 = factory
.create( "((5:0.1[&&NHX:S=5],6:0.1[&&NHX:S=6])5-6:0.05[&&NHX:S=6],(4:0.1[&&NHX:S=4],"
- + "(((1:0.1[&&NHX:S=1],2:0.1[&&NHX:S=2])1-2:0.1[&&NHX:S=2],3:0.25[&&NHX:S=3])1-2-3:0.2[&&NHX:S=2],"
- + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],"
- + "9:0.1[&&NHX:S=9])8-9:0.1[&&NHX:S=9])7-8-9:0.1[&&NHX:S=8])"
- + "4-5-6-7-8-9:0.1[&&NHX:S=5])4-5-6:0.05[&&NHX:S=5])",
- new NHXParser() )[ 0 ];
+ + "(((1:0.1[&&NHX:S=1],2:0.1[&&NHX:S=2])1-2:0.1[&&NHX:S=2],3:0.25[&&NHX:S=3])1-2-3:0.2[&&NHX:S=2],"
+ + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],"
+ + "9:0.1[&&NHX:S=9])8-9:0.1[&&NHX:S=9])7-8-9:0.1[&&NHX:S=8])"
+ + "4-5-6-7-8-9:0.1[&&NHX:S=5])4-5-6:0.05[&&NHX:S=5])",
+ new NHXParser() )[ 0 ];
species6.setRooted( true );
gene6.setRooted( true );
Phylogeny[] p6 = sdi_unrooted.infer( gene6, species6, false, true, true, true, 10 );
p6 = null;
final Phylogeny species7 = factory
.create( "(((1:[&&NHX:S=1],5:[&&NHX:S=5])1-5,((4:[&&NHX:S=4],6:[&&NHX:S=6])4-6,2:[&&NHX:S=2])4-6-2)1-5-4-6-2,"
- + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
- new NHXParser() )[ 0 ];
+ + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
+ new NHXParser() )[ 0 ];
final Phylogeny gene7 = factory
.create( "((5:0.1[&&NHX:S=5],6:0.1[&&NHX:S=6])5-6:0.05[&&NHX:S=6],(4:0.1[&&NHX:S=4],"
- + "(((1:0.1[&&NHX:S=1],2:0.1[&&NHX:S=2])1-2:0.1[&&NHX:S=2],3:0.25[&&NHX:S=3])1-2-3:0.2[&&NHX:S=2],"
- + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],"
- + "9:0.1[&&NHX:S=9])8-9:0.1[&&NHX:S=9])7-8-9:0.1[&&NHX:S=8])"
- + "4-5-6-7-8-9:0.1[&&NHX:S=5])4-5-6:0.05[&&NHX:S=5])",
- new NHXParser() )[ 0 ];
+ + "(((1:0.1[&&NHX:S=1],2:0.1[&&NHX:S=2])1-2:0.1[&&NHX:S=2],3:0.25[&&NHX:S=3])1-2-3:0.2[&&NHX:S=2],"
+ + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],"
+ + "9:0.1[&&NHX:S=9])8-9:0.1[&&NHX:S=9])7-8-9:0.1[&&NHX:S=8])"
+ + "4-5-6-7-8-9:0.1[&&NHX:S=5])4-5-6:0.05[&&NHX:S=5])",
+ new NHXParser() )[ 0 ];
species7.setRooted( true );
gene7.setRooted( true );
Phylogeny[] p7 = sdi_unrooted.infer( gene7, species7, true, true, true, true, 10 );
p7 = null;
final Phylogeny species8 = factory
.create( "(((1:[&&NHX:S=1],5:[&&NHX:S=5])1-5,((4:[&&NHX:S=4],6:[&&NHX:S=6])4-6,2:[&&NHX:S=2])4-6-2)1-5-4-6-2,"
- + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
- new NHXParser() )[ 0 ];
+ + "((9:[&&NHX:S=9],3:[&&NHX:S=3])9-3,(8:[&&NHX:S=8],7:[&&NHX:S=7])8-7)9-3-8-7)",
+ new NHXParser() )[ 0 ];
final Phylogeny gene8 = factory
.create( "((5:0.1[&&NHX:S=5],6:0.1[&&NHX:S=6])5-6:0.05[&&NHX:S=6],(4:0.1[&&NHX:S=4],"
- + "(((1:0.1[&&NHX:S=1],2:0.1[&&NHX:S=2])1-2:0.1[&&NHX:S=2],3:0.25[&&NHX:S=3])1-2-3:0.2[&&NHX:S=2],"
- + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],"
- + "9:0.1[&&NHX:S=9])8-9:0.1[&&NHX:S=9])7-8-9:0.1[&&NHX:S=8])"
- + "4-5-6-7-8-9:0.1[&&NHX:S=5])4-5-6:0.05[&&NHX:S=5])",
- new NHXParser() )[ 0 ];
+ + "(((1:0.1[&&NHX:S=1],2:0.1[&&NHX:S=2])1-2:0.1[&&NHX:S=2],3:0.25[&&NHX:S=3])1-2-3:0.2[&&NHX:S=2],"
+ + "(7:0.1[&&NHX:S=7],(8:0.1[&&NHX:S=8],"
+ + "9:0.1[&&NHX:S=9])8-9:0.1[&&NHX:S=9])7-8-9:0.1[&&NHX:S=8])"
+ + "4-5-6-7-8-9:0.1[&&NHX:S=5])4-5-6:0.05[&&NHX:S=5])",
+ new NHXParser() )[ 0 ];
species8.setRooted( true );
gene8.setRooted( true );
Phylogeny[] p8 = sdi_unrooted.infer( gene8, species8, false, false, true, true, 10 );
final PhylogenyFactory factory = ParserBasedPhylogenyFactory.getInstance();
final Phylogeny t0_1 = factory.create( "(((A,B),C),(D,E))", new NHXParser() )[ 0 ];
final Phylogeny[] phylogenies_1 = factory.create( "(((A,B),C),(D,E)) " + "(((C,B),A),(D,E))"
- + "(((A,B),C),(D,E)) " + "(((A,B),C),(D,E))"
- + "(((A,B),C),(D,E))" + "(((C,B),A),(D,E))"
- + "(((E,B),D),(C,A))" + "(((C,B),A),(D,E))"
- + "(((A,B),C),(D,E))" + "(((A,B),C),(D,E))",
- new NHXParser() );
+ + "(((A,B),C),(D,E)) " + "(((A,B),C),(D,E))"
+ + "(((A,B),C),(D,E))" + "(((C,B),A),(D,E))"
+ + "(((E,B),D),(C,A))" + "(((C,B),A),(D,E))"
+ + "(((A,B),C),(D,E))" + "(((A,B),C),(D,E))",
+ new NHXParser() );
SupportCount.count( t0_1, phylogenies_1, true, false );
final Phylogeny t0_2 = factory.create( "(((((A,B),C),D),E),(F,G))", new NHXParser() )[ 0 ];
final Phylogeny[] phylogenies_2 = factory.create( "(((((A,B),C),D),E),(F,G))"
- + "(((((A,B),C),D),E),((F,G),X))"
- + "(((((A,Y),B),C),D),((F,G),E))"
- + "(((((A,B),C),D),E),(F,G))"
- + "(((((A,B),C),D),E),(F,G))"
- + "(((((A,B),C),D),E),(F,G))"
- + "(((((A,B),C),D),E),(F,G),Z)"
- + "(((((A,B),C),D),E),(F,G))"
- + "((((((A,B),C),D),E),F),G)"
- + "(((((X,Y),F,G),E),((A,B),C)),D)",
- new NHXParser() );
+ + "(((((A,B),C),D),E),((F,G),X))"
+ + "(((((A,Y),B),C),D),((F,G),E))"
+ + "(((((A,B),C),D),E),(F,G))"
+ + "(((((A,B),C),D),E),(F,G))"
+ + "(((((A,B),C),D),E),(F,G))"
+ + "(((((A,B),C),D),E),(F,G),Z)"
+ + "(((((A,B),C),D),E),(F,G))"
+ + "((((((A,B),C),D),E),F),G)"
+ + "(((((X,Y),F,G),E),((A,B),C)),D)",
+ new NHXParser() );
SupportCount.count( t0_2, phylogenies_2, true, false );
final PhylogenyNodeIterator it = t0_2.iteratorPostorder();
while ( it.hasNext() ) {
private static boolean testUniprotEntryRetrieval() {
try {
- final SequenceDatabaseEntry entry = SequenceDbWsTools.obtainUniProtEntry( "P12345", 200 );
+ final SequenceDatabaseEntry entry = SequenceDbWsTools.obtainUniProtEntry( "P12345", 5000 );
if ( !entry.getAccession().equals( "P12345" ) ) {
return false;
}
if ( !entry.getTaxonomyIdentifier().equals( "9986" ) ) {
return false;
}
+ if ( entry.getMolecularSequence() == null ) {
+ return false;
+ }
if ( !entry
.getMolecularSequence()
.getMolecularSequenceAsString()
.startsWith( "MALLHSARVLSGVASAFHPGLAAAASARASSWWAHVEMGPPDPILGVTEAYKRDTNSKKMNLGVGAYRDDNGKPYVLPSVRKAEAQIAAKGLDKEYLPIGGLAEFCRASAELALGENSEV" )
|| !entry.getMolecularSequence().getMolecularSequenceAsString().endsWith( "LAHAIHQVTK" ) ) {
- System.out.println( entry.getMolecularSequence().getMolecularSequenceAsString() );
+ System.out.println( "got: " + entry.getMolecularSequence().getMolecularSequenceAsString() );
+ System.out.println( "expected something else." );
return false;
}
}
e.printStackTrace( System.out );
return true;
}
+ catch ( final NullPointerException f ) {
+ f.printStackTrace( System.out );
+ return false;
+ }
catch ( final Exception e ) {
return false;
}
git://source.jalview.org / jalview.git / blobdiff