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Bio::Phylo::Forest::NodeRole(3) |
User Contributed Perl Documentation |
Bio::Phylo::Forest::NodeRole(3) |
Bio::Phylo::Forest::NodeRole - Extra behaviours for a node in a phylogenetic
tree
# some way to get nodes:
use Bio::Phylo::IO;
my $string = '((A,B),C);';
my $forest = Bio::Phylo::IO->parse(
-format => 'newick',
-string => $string
);
# prints 'Bio::Phylo::Forest'
print ref $forest;
foreach my $tree ( @{ $forest->get_entities } ) {
# prints 'Bio::Phylo::Forest::Tree'
print ref $tree;
foreach my $node ( @{ $tree->get_entities } ) {
# prints 'Bio::Phylo::Forest::Node'
print ref $node;
# node has a parent, i.e. is not root
if ( $node->get_parent ) {
$node->set_branch_length(1);
}
# node is root
else {
$node->set_branch_length(0);
}
}
}
This module defines a node object and its methods. The node is fairly
syntactically rich in terms of navigation, and additional getters are provided
to further ease navigation from node to node. Typical first daughter ->
next sister traversal and recursion is possible, but there are also
shrinkwrapped methods that return for example all terminal descendants of the
focal node, or all internals, etc.
Node objects are inserted into tree objects, although technically
the tree object is only a container holding all the nodes together. Unless
there are orphans all nodes can be reached without recourse to the tree
object.
- new()
- Node constructor.
Type : Constructor
Title : new
Usage : my $node = Bio::Phylo::Forest::Node->new;
Function: Instantiates a Bio::Phylo::Forest::Node object
Returns : Bio::Phylo::Forest::Node
Args : All optional:
-parent => $parent,
-taxon => $taxon,
-branch_length => 0.423e+2,
-first_daughter => $f_daughter,
-last_daughter => $l_daughter,
-next_sister => $n_sister,
-previous_sister => $p_sister,
-name => 'node_name',
-desc => 'this is a node',
-score => 0.98,
-generic => {
-posterior => 0.98,
-bootstrap => 0.80
}
- new_from_bioperl()
- Node constructor from bioperl Bio::Tree::NodeI argument.
Type : Constructor
Title : new_from_bioperl
Usage : my $node =
Bio::Phylo::Forest::Node->new_from_bioperl(
$bpnode
);
Function: Instantiates a Bio::Phylo::Forest::Node object
from a bioperl node object.
Returns : Bio::Phylo::Forest::Node
Args : An objects that implements Bio::Tree::NodeI
Notes : The following BioPerl properties are copied:
BioPerl output: Bio::Phylo output:
------------------------------------------------
id get_name
branch_length get_branch_length
description get_desc
bootstrap get_generic('bootstrap')
In addition all BioPerl tags and values are copied
to set_generic( 'tag' => 'value' );
- prune_child()
- Removes argument child node (and its descendants) from invocants children.
Type : Mutator
Title : prune_child
Usage : $parent->prune_child($child);
Function: Removes $child (and its descendants) from $parent's children
Returns : Modified object.
Args : A valid argument is Bio::Phylo::Forest::Node object.
- collapse()
- Collapse node.
Type : Mutator
Title : collapse
Usage : $node->collapse;
Function: Attaches invocant's children to invocant's parent.
Returns : Modified object.
Args : NONE
Comments: If defined, adds invocant's branch
length to that of its children. If
$node is in a tree, removes itself
from that tree.
- set_first_daughter()
- Sets argument as invocant's first daughter.
Type : Mutator
Title : set_first_daughter
Usage : $node->set_first_daughter($f_daughter);
Function: Assigns a node's leftmost daughter.
Returns : Modified object.
Args : Undefines the first daughter if no
argument given. A valid argument is
a Bio::Phylo::Forest::Node object.
- set_last_daughter()
- Sets argument as invocant's last daughter.
Type : Mutator
Title : set_last_daughter
Usage : $node->set_last_daughter($l_daughter);
Function: Assigns a node's rightmost daughter.
Returns : Modified object.
Args : A valid argument consists of a
Bio::Phylo::Forest::Node object. If
no argument is given, the value is
set to undefined.
- set_previous_sister()
- Sets argument as invocant's previous sister.
Type : Mutator
Title : set_previous_sister
Usage : $node->set_previous_sister($p_sister);
Function: Assigns a node's previous sister (to the left).
Returns : Modified object.
Args : A valid argument consists of
a Bio::Phylo::Forest::Node object.
If no argument is given, the value
is set to undefined.
- set_next_sister()
- Sets argument as invocant's next sister.
Type : Mutator
Title : set_next_sister
Usage : $node->set_next_sister($n_sister);
Function: Assigns or retrieves a node's
next sister (to the right).
Returns : Modified object.
Args : A valid argument consists of a
Bio::Phylo::Forest::Node object.
If no argument is given, the
value is set to undefined.
- set_node_below()
- Sets new (unbranched) node below invocant.
Type : Mutator
Title : set_node_below
Usage : my $new_node = $node->set_node_below;
Function: Creates a new node below $node
Returns : New node if tree was modified, undef otherwise
Args : NONE
- set_root_below()
- Reroots below invocant.
Type : Mutator
Title : set_root_below
Usage : $node->set_root_below;
Function: Creates a new tree root below $node
Returns : New root if tree was modified, undef otherwise
Args : NONE
Comments: This implementation is a port of @lh3's kn_reroot algorithm
found here: http://lh3lh3.users.sourceforge.net/knhx.js
- get_first_daughter()
- Gets invocant's first daughter.
Type : Accessor
Title : get_first_daughter
Usage : my $f_daughter = $node->get_first_daughter;
Function: Retrieves a node's leftmost daughter.
Returns : Bio::Phylo::Forest::Node
Args : NONE
- get_last_daughter()
- Gets invocant's last daughter.
Type : Accessor
Title : get_last_daughter
Usage : my $l_daughter = $node->get_last_daughter;
Function: Retrieves a node's rightmost daughter.
Returns : Bio::Phylo::Forest::Node
Args : NONE
- get_previous_sister()
- Gets invocant's previous sister.
Type : Accessor
Title : get_previous_sister
Usage : my $p_sister = $node->get_previous_sister;
Function: Retrieves a node's previous sister (to the left).
Returns : Bio::Phylo::Forest::Node
Args : NONE
- get_next_sister()
- Gets invocant's next sister.
Type : Accessor
Title : get_next_sister
Usage : my $n_sister = $node->get_next_sister;
Function: Retrieves a node's next sister (to the right).
Returns : Bio::Phylo::Forest::Node
Args : NONE
- get_ancestors()
- Gets invocant's ancestors.
Type : Query
Title : get_ancestors
Usage : my @ancestors = @{ $node->get_ancestors };
Function: Returns an array reference of ancestral nodes,
ordered from young to old (i.e. $ancestors[-1] is root).
Returns : Array reference of Bio::Phylo::Forest::Node
objects.
Args : NONE
- get_root()
- Gets root relative to the invocant, i.e. by walking up the path of
ancestors
Type : Query
Title : get_root
Usage : my $root = $node->get_root;
Function: Gets root relative to the invocant
Returns : Bio::Phylo::Forest::Node
Args : NONE
- get_farthest_node()
- Gets node farthest away from the invocant. By default this is nodal
distance, but when supplied an optional true argument it is based on
patristic distance instead.
Type : Query
Title : get_farthest_node
Usage : my $farthest = $node->get_farthest_node;
Function: Gets node farthest away from the invocant.
Returns : Bio::Phylo::Forest::Node
Args : Optional, TRUE value to use patristic instead of nodal distance
- get_sisters()
- Gets invocant's sisters.
Type : Query
Title : get_sisters
Usage : my @sisters = @{ $node->get_sisters };
Function: Returns an array reference of sisters,
ordered from left to right.
Returns : Array reference of
Bio::Phylo::Forest::Node objects.
Args : NONE
- get_child()
- Gets invocant's i'th child.
Type : Query
Title : get_child
Usage : my $child = $node->get_child($i);
Function: Returns the child at index $i
Returns : A Bio::Phylo::Forest::Node object.
Args : An index (integer) $i
Comments: if no index is specified, first
child is returned
- get_descendants()
- Gets invocant's descendants.
Type : Query
Title : get_descendants
Usage : my @descendants = @{ $node->get_descendants };
Function: Returns an array reference of
descendants, recursively ordered
breadth first.
Returns : Array reference of
Bio::Phylo::Forest::Node objects.
Args : none.
- get_terminals()
- Gets invocant's terminal descendants.
Type : Query
Title : get_terminals
Usage : my @terminals = @{ $node->get_terminals };
Function: Returns an array reference
of terminal descendants.
Returns : Array reference of
Bio::Phylo::Forest::Node objects.
Args : NONE
- get_internals()
- Gets invocant's internal descendants.
Type : Query
Title : get_internals
Usage : my @internals = @{ $node->get_internals };
Function: Returns an array reference
of internal descendants.
Returns : Array reference of
Bio::Phylo::Forest::Node objects.
Args : NONE
- get_mrca()
- Gets invocant's most recent common ancestor shared with argument.
Type : Query
Title : get_mrca
Usage : my $mrca = $node->get_mrca($other_node);
Function: Returns the most recent common ancestor
of $node and $other_node.
Returns : Bio::Phylo::Forest::Node
Args : A Bio::Phylo::Forest::Node
object in the same tree.
- get_leftmost_terminal()
- Gets invocant's leftmost terminal descendant.
Type : Query
Title : get_leftmost_terminal
Usage : my $leftmost_terminal =
$node->get_leftmost_terminal;
Function: Returns the leftmost
terminal descendant of $node.
Returns : Bio::Phylo::Forest::Node
Args : NONE
- get_rightmost_terminal()
- Gets invocant's rightmost terminal descendant
Type : Query
Title : get_rightmost_terminal
Usage : my $rightmost_terminal =
$node->get_rightmost_terminal;
Function: Returns the rightmost
terminal descendant of $node.
Returns : Bio::Phylo::Forest::Node
Args : NONE
- get_subtree()
- Returns the tree subtended by the invocant
Type : Query
Title : get_subtree
Usage : my $tree = $node->get_subtree;
Function: Returns the tree subtended by the invocant
Returns : Bio::Phylo::Forest::Tree
Args : NONE
- get_subtrees()
- Returns the subtree rooted at the common ancestor of u and v, and the
respective subtrees that contain u and v
Type : Query
Title : get_subtrees
Usage : my ( $found_u, $found_v, $subtree, $subtree_u, $subtree_v ) = $root->get_subtrees($u,$v);
Function: Returns the tree subtended by the invocant
Returns : A list containing the following variables:
- boolean: did we find u
- boolean: did we find v
- Bio::Phylo::Forest::Node - the root node of the connecting subtree
- Bio::Phylo::Forest::Node - the root node of the subtree for $u
- Bio::Phylo::Forest::Node - the root node of the subtree for $v
Args : Two nodes, $u and $v
Comments: This is a recursive method that is used by the RANKPROB calculations (see
below). Typically you would invoke this method on the root node of the tree
containing $u and $v, and the method then recurses up the tree. The tree must
be bifurcating, or an exception is thrown.
- is_terminal()
- Tests if invocant is a terminal node.
Type : Test
Title : is_terminal
Usage : if ( $node->is_terminal ) {
# do something
}
Function: Returns true if node has
no children (i.e. is terminal).
Returns : BOOLEAN
Args : NONE
- is_internal()
- Tests if invocant is an internal node.
Type : Test
Title : is_internal
Usage : if ( $node->is_internal ) {
# do something
}
Function: Returns true if node
has children (i.e. is internal).
Returns : BOOLEAN
Args : NONE
- is_preterminal()
- Tests if all direct descendents are terminal
Type : Test
Title : is_preterminal
Usage : if ( $node->is_preterminal ) {
# do something
}
Function: Returns true if all direct descendents are terminal
Returns : BOOLEAN
Args : NONE
- is_first()
- Tests if invocant is first sibling in left-to-right order.
Type : Test
Title : is_first
Usage : if ( $node->is_first ) {
# do something
}
Function: Returns true if first sibling
in left-to-right order.
Returns : BOOLEAN
Args : NONE
- is_last()
- Tests if invocant is last sibling in left-to-right order.
Type : Test
Title : is_last
Usage : if ( $node->is_last ) {
# do something
}
Function: Returns true if last sibling
in left-to-right order.
Returns : BOOLEAN
Args : NONE
- is_root()
- Tests if invocant is a root.
Type : Test
Title : is_root
Usage : if ( $node->is_root ) {
# do something
}
Function: Returns true if node is a root
Returns : BOOLEAN
Args : NONE
- is_descendant_of()
- Tests if invocant is descendant of argument.
Type : Test
Title : is_descendant_of
Usage : if ( $node->is_descendant_of($grandparent) ) {
# do something
}
Function: Returns true if the node is
a descendant of the argument.
Returns : BOOLEAN
Args : putative ancestor - a
Bio::Phylo::Forest::Node object.
- is_ancestor_of()
- Tests if invocant is ancestor of argument.
Type : Test
Title : is_ancestor_of
Usage : if ( $node->is_ancestor_of($grandchild) ) {
# do something
}
Function: Returns true if the node
is an ancestor of the argument.
Returns : BOOLEAN
Args : putative descendant - a
Bio::Phylo::Forest::Node object.
- is_sister_of()
- Tests if invocant is sister of argument.
Type : Test
Title : is_sister_of
Usage : if ( $node->is_sister_of($sister) ) {
# do something
}
Function: Returns true if the node is
a sister of the argument.
Returns : BOOLEAN
Args : putative sister - a
Bio::Phylo::Forest::Node object.
- is_child_of()
- Tests if invocant is child of argument.
Type : Test
Title : is_child_of
Usage : if ( $node->is_child_of($parent) ) {
# do something
}
Function: Returns true if the node is
a child of the argument.
Returns : BOOLEAN
Args : putative parent - a
Bio::Phylo::Forest::Node object.
- is_outgroup_of()
- Test if invocant is outgroup of argument nodes.
Type : Test
Title : is_outgroup_of
Usage : if ( $node->is_outgroup_of(\@ingroup) ) {
# do something
}
Function: Tests whether the set of
\@ingroup is monophyletic
with respect to the $node.
Returns : BOOLEAN
Args : A reference to an array of
Bio::Phylo::Forest::Node objects;
Comments: This method is essentially the same as
&Bio::Phylo::Forest::Tree::is_monophyletic.
- can_contain()
- Test if argument(s) can be a child/children of invocant.
Type : Test
Title : can_contain
Usage : if ( $parent->can_contain(@children) ) {
# do something
}
Function: Test if arguments can be children of invocant.
Returns : BOOLEAN
Args : An array of Bio::Phylo::Forest::Node objects;
Comments: This method is an override of
Bio::Phylo::Listable::can_contain. Since node
objects hold a list of their children, they
inherit from the listable class and so they
need to be able to validate the contents
of that list before they are inserted.
- calc_path_to_root()
- Calculates path to root.
Type : Calculation
Title : calc_path_to_root
Usage : my $path_to_root =
$node->calc_path_to_root;
Function: Returns the sum of branch
lengths from $node to the root.
Returns : FLOAT
Args : NONE
- calc_nodes_to_root()
- Calculates number of nodes to root.
Type : Calculation
Title : calc_nodes_to_root
Usage : my $nodes_to_root =
$node->calc_nodes_to_root;
Function: Returns the number of nodes
from $node to the root.
Returns : INT
Args : NONE
- calc_max_nodes_to_tips()
- Calculates maximum number of nodes to tips.
Type : Calculation
Title : calc_max_nodes_to_tips
Usage : my $max_nodes_to_tips =
$node->calc_max_nodes_to_tips;
Function: Returns the maximum number
of nodes from $node to tips.
Returns : INT
Args : NONE
- calc_min_nodes_to_tips()
- Calculates minimum number of nodes to tips.
Type : Calculation
Title : calc_min_nodes_to_tips
Usage : my $min_nodes_to_tips =
$node->calc_min_nodes_to_tips;
Function: Returns the minimum number of
nodes from $node to tips.
Returns : INT
Args : NONE
- calc_max_path_to_tips()
- Calculates longest path to tips.
Type : Calculation
Title : calc_max_path_to_tips
Usage : my $max_path_to_tips =
$node->calc_max_path_to_tips;
Function: Returns the path length from
$node to the tallest tip.
Returns : FLOAT
Args : NONE
- calc_min_path_to_tips()
- Calculates shortest path to tips.
Type : Calculation
Title : calc_min_path_to_tips
Usage : my $min_path_to_tips =
$node->calc_min_path_to_tips;
Function: Returns the path length from
$node to the shortest tip.
Returns : FLOAT
Args : NONE
- calc_patristic_distance()
- Calculates patristic distance between invocant and argument.
Type : Calculation
Title : calc_patristic_distance
Usage : my $patristic_distance =
$node->calc_patristic_distance($other_node);
Function: Returns the patristic distance
between $node and $other_node.
Returns : FLOAT
Args : Bio::Phylo::Forest::Node
- calc_nodal_distance()
- Calculates node distance between invocant and argument.
Type : Calculation
Title : calc_nodal_distance
Usage : my $nodal_distance =
$node->calc_nodal_distance($other_node);
Function: Returns the number of nodes
between $node and $other_node.
Returns : INT
Args : Bio::Phylo::Forest::Node
- calc_terminals()
- Calculates number of terminals subtended by the invocant
Type : Calculation
Title : calc_terminals
Usage : my $ntips = $node->calc_terminals;
Function: Returns the number of terminals subtended by the invocant
Returns : INT
Args : None
- calc_rankprob_tipcounts()
- Recurses from the root to the tips, returns an array reference at every
step whose first element is a boolean set to true once the query node has
been seen. The second element is an array that contains the number of
subtended leaves - 1 for the query node and for all sisters of the nodes
on the path from the query to the root. This method is used by the
RANKPROB calculations (see below)
Type : Calculation
Title : calc_rankprob_tipcounts
Usage : my @rp = @{ $root->calc_rankprob_tipcounts($node) };
Function: Returns tip counts for RANKPROB
Returns : ARRAY
Args : NONE
- calc_rankprob()
- Calculates the probabilities for all rank orderings that the invocant node
can occupy among all possible labeled histories. Uses Stadler's RANKPROB
algorithm as described in:
Gernhard, T. et al., 2006. Estimating the relative
order of speciation or coalescence events on a given phylogeny.
Evolutionary Bioinformatics Online. 2:285.
<http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2674681/>.
Type : Calculation
Title : calc_rankprob
Usage : my @rp = @{ $root->calc_rankprob($node) };
Function: Returns the rank probabilities of the invocant node
Returns : ARRAY, indices are ranks, values are probabilities
Args : NONE
- calc_expected_rank()
- Calculates the expected rank and variance that the invocant node occupies
among all possible labeled histories. Uses Stadler's RANKPROB algorithm as
described in:
Gernhard, T. et al., 2006. Estimating the relative
order of speciation or coalescence events on a given phylogeny.
Evolutionary Bioinformatics Online. 2:285.
<http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2674681/>.
Type : Calculation
Title : calc_expected_rank
Usage : my ( $rank, $variance ) = $root->calc_expected_rank($node);
Function: Calculates expected rank and variance
Returns : Two numbers: rank and variance
Args : NONE
- calc_rankprob_compare()
- Calculates the probability that the argument node is below the invocant
node over all possible labeled histories. Uses Stadler's COMPARE algorithm
as described in:
Gernhard, T. et al., 2006. Estimating the relative
order of speciation or coalescence events on a given phylogeny.
Evolutionary Bioinformatics Online. 2:285.
<http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2674681/>.
Type : Calculation
Title : calc_rankprob_compare
Usage : my $prob = $root->calc_rankprob_compare($u,$v);
Function: Compares rankings of nodes
Returns : A number (probability)
Args : Bio::Phylo::Forest::Node
The methods below are similar in spirit to those by the same name in
Bio::Phylo::Forest::Tree, except those in the tree class operate from the tree
root, and those in this node class operate on an invocant node, and so these
process a subtree.
- visit_depth_first()
- Visits nodes depth first
Type : Visitor method
Title : visit_depth_first
Usage : $tree->visit_depth_first( -pre => sub{ ... }, -post => sub { ... } );
Function: Visits nodes in a depth first traversal, executes subs
Returns : $tree
Args : Optional:
# first event handler, is executed when node is reached in recursion
-pre => sub { print "pre: ", shift->get_name, "\n" },
# is executed if node has a daughter, but before that daughter is processed
-pre_daughter => sub { print "pre_daughter: ", shift->get_name, "\n" },
# is executed if node has a daughter, after daughter has been processed
-post_daughter => sub { print "post_daughter: ", shift->get_name, "\n" },
# is executed if node has no daughter
-no_daughter => sub { print "no_daughter: ", shift->get_name, "\n" },
# is executed whether or not node has sisters, if it does have sisters
# they're processed first
-in => sub { print "in: ", shift->get_name, "\n" },
# is executed if node has a sister, before sister is processed
-pre_sister => sub { print "pre_sister: ", shift->get_name, "\n" },
# is executed if node has a sister, after sister is processed
-post_sister => sub { print "post_sister: ", shift->get_name, "\n" },
# is executed if node has no sister
-no_sister => sub { print "no_sister: ", shift->get_name, "\n" },
# is executed last
-post => sub { print "post: ", shift->get_name, "\n" },
# specifies traversal order, default 'ltr' means first_daugher -> next_sister
# traversal, alternate value 'rtl' means last_daughter -> previous_sister traversal
-order => 'ltr', # ltr = left-to-right, 'rtl' = right-to-left
# passes sister node as second argument to pre_sister and post_sister subs,
# and daughter node as second argument to pre_daughter and post_daughter subs
-with_relatives => 1 # or any other true value
Comments:
- visit_breadth_first()
- Visits nodes breadth first
Type : Visitor method
Title : visit_breadth_first
Usage : $tree->visit_breadth_first( -pre => sub{ ... }, -post => sub { ... } );
Function: Visits nodes in a breadth first traversal, executes handlers
Returns : $tree
Args : Optional handlers in the order in which they would be executed on an internal node:
# first event handler, is executed when node is reached in recursion
-pre => sub { print "pre: ", shift->get_name, "\n" },
# is executed if node has a sister, before sister is processed
-pre_sister => sub { print "pre_sister: ", shift->get_name, "\n" },
# is executed if node has a sister, after sister is processed
-post_sister => sub { print "post_sister: ", shift->get_name, "\n" },
# is executed if node has no sister
-no_sister => sub { print "no_sister: ", shift->get_name, "\n" },
# is executed whether or not node has sisters, if it does have sisters
# they're processed first
-in => sub { print "in: ", shift->get_name, "\n" },
# is executed if node has a daughter, but before that daughter is processed
-pre_daughter => sub { print "pre_daughter: ", shift->get_name, "\n" },
# is executed if node has a daughter, after daughter has been processed
-post_daughter => sub { print "post_daughter: ", shift->get_name, "\n" },
# is executed if node has no daughter
-no_daughter => sub { print "no_daughter: ", shift->get_name, "\n" },
# is executed last
-post => sub { print "post: ", shift->get_name, "\n" },
# specifies traversal order, default 'ltr' means first_daugher -> next_sister
# traversal, alternate value 'rtl' means last_daughter -> previous_sister traversal
-order => 'ltr', # ltr = left-to-right, 'rtl' = right-to-left
Comments:
- visit_level_order()
- Visits nodes in a level order traversal.
Type : Visitor method
Title : visit_level_order
Usage : $tree->visit_level_order( sub{...} );
Function: Visits nodes in a level order traversal, executes sub
Returns : $tree
Args : A subroutine reference that operates on visited nodes.
Comments:
- to_xml()
- Serializes invocant to xml.
Type : Serializer
Title : to_xml
Usage : my $xml = $obj->to_xml;
Function: Turns the invocant object (and its descendants )into an XML string.
Returns : SCALAR
Args : NONE
- to_newick()
- Serializes subtree subtended by invocant to newick string.
Type : Serializer
Title : to_newick
Usage : my $newick = $obj->to_newick;
Function: Turns the invocant object into a newick string.
Returns : SCALAR
Args : takes same arguments as Bio::Phylo::Unparsers::Newick
Comments: takes same arguments as Bio::Phylo::Unparsers::Newick
- to_dom()
-
Type : Serializer
Title : to_dom
Usage : $node->to_dom($dom)
Function: Generates an array of DOM elements from the invocant's
descendants
Returns : an array of Element objects
Args : DOM factory object
There is a mailing list at
<https://groups.google.com/forum/#!forum/bio-phylo> for any user or
developer questions and discussions.
- Bio::Phylo::Taxa::TaxonLinker
- This object inherits from Bio::Phylo::Taxa::TaxonLinker, so methods
defined there are also applicable here.
- Bio::Phylo::Listable
- This object inherits from Bio::Phylo::Listable, so methods defined there
are also applicable here.
- Bio::Phylo::Manual
- Also see the manual: Bio::Phylo::Manual and
<http://rutgervos.blogspot.com>.
If you use Bio::Phylo in published research, please cite it:
Rutger A Vos, Jason Caravas, Klaas Hartmann,
Mark A Jensen and Chase Miller, 2011. Bio::Phylo -
phyloinformatic analysis using Perl. BMC Bioinformatics 12:63.
<http://dx.doi.org/10.1186/1471-2105-12-63>
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