def test_merging_incorrect(self):
# cases when vertices in two supplied for the merging edges are not consistent
v1 = BlockVertex("v1")
v2 = BlockVertex("v2")
v3 = BlockVertex("v3")
v4 = BlockVertex("v4")
multicolor = Multicolor(self.genome3)
multicolor1 = Multicolor(self.genome2)
edge1 = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
edge2 = BGEdge(vertex1=v1, vertex2=v3, multicolor=multicolor1)
with self.assertRaises(ValueError):
BGEdge.merge(edge1, edge2)
edge2 = BGEdge(vertex1=v3, vertex2=v2, multicolor=multicolor1)
with self.assertRaises(ValueError):
BGEdge.merge(edge1, edge2)
edge2 = BGEdge(vertex1=v3, vertex2=v4, multicolor=multicolor1)
with self.assertRaises(ValueError):
BGEdge.merge(edge1, edge2)
edge2 = BGEdge(vertex1=v1, vertex2=v1, multicolor=multicolor1)
with self.assertRaises(ValueError):
BGEdge.merge(edge1, edge2)
edge2 = BGEdge(vertex1=v2, vertex2=v2, multicolor=multicolor1)
with self.assertRaises(ValueError):
BGEdge.merge(edge1, edge2)
edge2 = BGEdge(vertex1=v3, vertex2=v1, multicolor=multicolor1)
with self.assertRaises(ValueError):
BGEdge.merge(edge1, edge2)
def test_get_vtree_consistent_multicolors(self):
tree = BGTree("(((v1, v2), v3),(v4, v5));")
self.assertFalse(tree.multicolors_are_up_to_date)
vtree_consistent_multicolors = tree.get_vtree_consistent_multicolors()
self.assertTrue(tree.multicolors_are_up_to_date)
self.assertIsInstance(vtree_consistent_multicolors, list)
self.assertTrue(vtree_consistent_multicolors,
tree.vtree_consistent_multicolors)
self.assertFalse(
vtree_consistent_multicolors is tree.vtree_consistent_multicolors)
for obtained_mc, stored_mc in zip(vtree_consistent_multicolors,
tree.vtree_consistent_multicolors):
self.assertFalse(obtained_mc is stored_mc)
self.assertSetEqual(
{
mc.hashable_representation
for mc in vtree_consistent_multicolors
}, tree.vtree_consistent_multicolors_set)
self.assertEqual(len(vtree_consistent_multicolors), 10)
ref_vtree_consistent_multicolors = [
Multicolor(),
Multicolor(self.bg_v1, self.bg_v2, self.bg_v3, self.bg_v4,
self.bg_v5),
Multicolor(self.bg_v1),
Multicolor(self.bg_v2),
Multicolor(self.bg_v3),
Multicolor(self.bg_v4),
Multicolor(self.bg_v5),
Multicolor(self.bg_v1, self.bg_v2),
Multicolor(self.bg_v4, self.bg_v5),
Multicolor(self.bg_v1, self.bg_v2, self.bg_v3),
]
for multicolor in ref_vtree_consistent_multicolors:
self.assertIn(multicolor, vtree_consistent_multicolors)
def test__gt__and__ge__(self):
# multicolor are compared as follows:
# for all the colors in the left argument of comparison, checks that multiplicity of that color in right argument is
# greater (greater-equal)
mc1 = Multicolor(self.genome1, self.genome2, self.genome1)
mc2 = Multicolor(self.genome1, self.genome2)
self.assertTrue(mc1 > mc2)
self.assertTrue(mc1 >= mc2)
mc2 = Multicolor(self.genome1, self.genome1, self.genome2)
self.assertFalse(mc1 > mc2)
self.assertTrue(mc1 >= mc2)
mc2 = Multicolor(self.genome1, self.genome1, self.genome2,
self.genome2)
self.assertFalse(mc1 > mc2)
self.assertFalse(mc1 >= mc2)
###############################################################################################
#
# Multicolor object is never greater or equal to the non-Multicolor object
#
###############################################################################################
for non_multicolor_object in [1, (1, ), [
1,
], "1", Mock()]:
self.assertFalse(mc1 >= non_multicolor_object)
self.assertFalse(mc1 > non_multicolor_object)
def test_hashable_representation(self):
# every multicolor has to have a hashable representation, that can be utilized in a set/dict
# for a fast check against multicolor instance
################################################
# the idea is to use sorted Counter.elements() method and convert into sorted tuple on the fly
genome_list = [
self.genome1, self.genome2, self.genome3, self.genome4,
self.genome1, self.genome2, self.genome1
]
mc = Multicolor(*genome_list)
ref_tuple = tuple(sorted(genome_list))
result = mc.hashable_representation
self.assertTrue(isinstance(result, tuple))
self.assertTupleEqual(result, ref_tuple)
mc1 = Multicolor(*result)
self.assertEqual(mc, mc1)
# non-equal multicolors shall have different hashable representations
mc1 = Multicolor(*genome_list[:-2])
mc2 = Multicolor(*genome_list[:-1])
self.assertNotEqual(mc1, mc2)
self.assertNotEqual(mc1.hashable_representation,
mc2.hashable_representation)
# there shall be no errors or exceptions raised while taking hash of hashable_representation
result = mc.hashable_representation
self.assertEqual(hash(result), hash(ref_tuple))
def test_equality(self):
# edges are called equal if they connect same pairs of vertices and have same multicolor assigned to them
v1 = BlockVertex("v1")
v2 = BlockVertex("v2")
v3 = BlockVertex("v3")
v4 = BlockVertex("v4")
multicolor = Multicolor(self.genome3)
multicolor1 = Multicolor(self.genome2)
edge1 = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
edge2 = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor1)
edge3 = BGEdge(vertex1=v1, vertex2=v3, multicolor=multicolor1)
edge4 = BGEdge(vertex1=v3, vertex2=v4, multicolor=multicolor)
self.assertNotEqual(edge1, edge2)
self.assertNotEqual(edge1, edge3)
self.assertNotEqual(edge2, edge3)
self.assertNotEqual(edge1, edge4)
edge4 = BGEdge(vertex1=v2, vertex2=v1, multicolor=multicolor)
edge5 = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
self.assertEqual(edge1, edge4)
self.assertEqual(edge1, edge5)
self.assertEqual(edge4, edge5)
self.assertNotEqual(edge1, 5)
edge6 = BGEdge(vertex1=v3, vertex2=v1, multicolor=multicolor)
self.assertNotEqual(edge1, edge6)
self.assertEqual(edge1, edge4)
edge4.data = {"fragment": {"name": 1}}
edge1.data = {"fragment": {"name": 2}}
self.assertNotEqual(edge1, edge4)
edge1.data = {"fragment": {"name": 1}}
self.assertEqual(edge1, edge4)
def __update_consistent_multicolors(self):
""" Internally used method, that recalculates T-consistent / VT-consistent multicolors for current tree topology
"""
v_t_consistent_multicolors = self.__get_v_tree_consistent_leaf_based_hashable_multicolors(
)
hashed_vtree_consistent_leaves_multicolors = {
mc.hashable_representation
for mc in v_t_consistent_multicolors
}
self.vtree_consistent_multicolors_set = hashed_vtree_consistent_leaves_multicolors
self.vtree_consistent_multicolors = [
Multicolor(*hashed_multicolor)
for hashed_multicolor in hashed_vtree_consistent_leaves_multicolors
]
result = []
# T-consistent multicolors can be viewed as VT-consistent multicolors united with all of their complements
full_multicolor = v_t_consistent_multicolors[0]
for multicolor in v_t_consistent_multicolors:
result.append(multicolor)
result.append(full_multicolor - multicolor)
hashed_tree_consistent_leaves_multicolors = {
mc.hashable_representation
for mc in result
}
self.tree_consistent_multicolors_set = hashed_tree_consistent_leaves_multicolors
self.tree_consistent_multicolors = [
Multicolor(*hashed_multicolor)
for hashed_multicolor in hashed_tree_consistent_leaves_multicolors
]
self.multicolors_are_up_to_date = True
def test_is_multicolor_vtree_consistent(self):
mc = Multicolor()
self.assertTrue(BGTree().multicolor_is_vtree_consistent(mc))
tree = BGTree("(((v1, v2), v3), (v4, v5));")
self.assertTrue(
tree.multicolor_is_tree_consistent(Multicolor(self.bg_v1)))
self.assertTrue(
tree.multicolor_is_tree_consistent(
Multicolor(self.bg_v1, self.bg_v2)))
self.assertTrue(
tree.multicolor_is_tree_consistent(
Multicolor(self.bg_v4, self.bg_v5)))
self.assertTrue(
tree.multicolor_is_tree_consistent(
Multicolor(self.bg_v1, self.bg_v2, self.bg_v3)))
self.assertTrue(
tree.multicolor_is_tree_consistent(
Multicolor(self.bg_v1, self.bg_v2, self.bg_v3, self.bg_v4,
self.bg_v5)))
self.assertFalse(
tree.multicolor_is_tree_consistent(
Multicolor(self.bg_v2, self.bg_v3)))
self.assertFalse(
tree.multicolor_is_tree_consistent(
Multicolor(self.bg_v1, BGGenome("v6"))))
self.assertFalse(
tree.multicolor_is_tree_consistent(
Multicolor(self.bg_v3, self.bg_v5)))
def run(self, manager):
manager.logger.info("Reading blocks orders data")
file_paths = manager.configuration["gos-asm"]["input"]["block_orders_file_paths"]
bg = BreakpointGraph()
for file_path in file_paths:
with open(file_path, "rt") as source:
bg.update(breakpoint_graph=GRIMMReader.get_breakpoint_graph(stream=source, merge_edges=False), merge_edges=False)
manager.data["gos-asm"]["bg"] = bg
manager.logger.info("Reading phylogenetic tree information")
tree = BGTree(newick=manager.configuration["gos-asm"]["input"]["phylogenetic_tree"])
manager.data["gos-asm"]["phylogenetic_tree"] = tree
full_tmc = Multicolor(*[BGGenome(genome_name) for genome_name in manager.configuration["gos-asm"]["input"]["target_organisms"]])
manager.data["gos-asm"]["target_multicolor"] = full_tmc
vtree_consistent_target_multicolors = Multicolor.split_colors(full_tmc,
guidance=tree.vtree_consistent_multicolors,
account_for_color_multiplicity_in_guidance=False)
for target_multicolor in vtree_consistent_target_multicolors[:]:
for vtree_c_multicolor in deepcopy(tree.vtree_consistent_multicolors):
if vtree_c_multicolor <= target_multicolor \
and vtree_c_multicolor not in vtree_consistent_target_multicolors \
and len(vtree_c_multicolor.colors) > 0:
vtree_consistent_target_multicolors.append(vtree_c_multicolor)
vtree_consistent_target_multicolors = sorted(vtree_consistent_target_multicolors,
key=lambda mc: len(mc.hashable_representation),
reverse=True)
all_target_multicolors = vtree_consistent_target_multicolors[:]
# for i in range(2, len(vtree_consistent_target_multicolors) + 1):
# for comb in itertools.combinations(vtree_consistent_target_multicolors[:], i):
# comb = list(comb)
# for mc1, mc2 in itertools.combinations(comb, 2):
# if len(mc1.intersect(mc2).colors) > 0:
# break
# else:
# new_mc = Multicolor()
# for mc in comb:
# new_mc += mc
# all_target_multicolors.append(new_mc)
hashed_vertex_tree_consistent_multicolors = {mc.hashable_representation for mc in all_target_multicolors}
all_target_multicolors = [Multicolor(*hashed_multicolor) for hashed_multicolor in
hashed_vertex_tree_consistent_multicolors]
all_target_multicolors = sorted(all_target_multicolors,
key=lambda mc: len(mc.hashable_representation),
reverse=True)
manager.data["gos-asm"]["target_multicolors"] = all_target_multicolors
# log_bg_stats(bg=bg, logger=manager.logger)
manager.logger.info("Reading repeats-bridges information")
manager.data["gos-asm"]["repeats_guidance"] = get_repeats_bridges_guidance(
file_name=manager.configuration["gos-asm"]["input"]["repeats_bridges_file"], data=manager.data)
def test_single_initialization(self):
# simple case initialization where only one genome with multiplicity one is supplied
mc = Multicolor(self.genome1)
self.assertEqual(len(mc.colors), 1)
self.assertEqual(len(mc.multicolors), 1)
self.assertSetEqual({self.genome1}, mc.colors)
self.assertEqual(mc.multicolors[self.genome1], 1)
mc = Multicolor(self.genome1)
self.assertEqual(len(mc.colors), 1)
self.assertEqual(len(mc.multicolors), 1)
self.assertSetEqual({self.genome1}, mc.colors)
self.assertEqual(mc.multicolors[self.genome1], 1)
def test_get_tree_consistent_multicolors_with_non_default_leaf_wrapper(
self):
tree = BGTree("(v1, v2)root;", leaf_wrapper=lambda name: name)
tree_consistent_multicolors = tree.get_tree_consistent_multicolors()
ref_multicolors = [
Multicolor(self.v1),
Multicolor(self.v2),
Multicolor(),
Multicolor(self.v1, self.v2)
]
self.assertEqual(len(tree_consistent_multicolors), 4)
for mc in tree_consistent_multicolors:
self.assertIn(mc, ref_multicolors)
def test_iter_over_colors_json_ids(self):
# when multiedge is serialized into json a list of colors in it referenced by their ids
# the multiplicity of colors has to be preserved
v1 = BlockVertex("v1")
v2 = BlockVertex("v2")
genomes = [
self.genome1, self.genome1, self.genome2, self.genome3,
self.genome2
]
multicolor = Multicolor(*genomes)
bgedge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
json_ids = bgedge.colors_json_ids
self.assertTrue(isinstance(json_ids, list))
json_ids_list = json_ids
self.assertEqual(len(json_ids_list), 5)
ref_json_ids = Counter(genome.json_id for genome in genomes)
res_json_ids = Counter(json_ids_list)
self.assertDictEqual(ref_json_ids, res_json_ids)
# case when color objects are not a BGGenome, but some other hashable object without json_id attribute
v1 = BlockVertex("v1")
v2 = BlockVertex("v2")
colors = ["red", "red", "green", "black", "yellow", "green"]
multicolor = Multicolor(*colors)
bgedge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
json_ids = bgedge.colors_json_ids
self.assertTrue(isinstance(json_ids, list))
json_ids_list = json_ids
self.assertEqual(len(json_ids_list), 6)
ref_json_ids = Counter(hash(genome) for genome in colors)
res_json_ids = Counter(json_ids_list)
self.assertDictEqual(ref_json_ids, res_json_ids)
# case when color objects are mixed objects: BGGenome objects, just hashable, have json_id but not BGGenome
v1 = BlockVertex("v1")
v2 = BlockVertex("v2")
mock1, mock2 = Mock(), Mock()
mock1.json_id = 5
mock2.json_id = 6
colors = [
self.genome1, mock1, self.genome2, "black", mock2, self.genome2
]
multicolor = Multicolor(*colors)
bgedge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
json_ids = bgedge.colors_json_ids
self.assertTrue(isinstance(json_ids, list))
json_ids_list = list(json_ids)
self.assertEqual(len(json_ids_list), 6)
ref_json_ids = Counter(
genome.json_id if hasattr(genome, "json_id") else hash(genome)
for genome in colors)
res_json_ids = Counter(json_ids_list)
self.assertDictEqual(ref_json_ids, res_json_ids)
def test_get_breakpoint_from_file_with_comment_data_string(self):
data = [
"", "\t", "#comment1", ">genome_name_1", " #comment1",
"# data :: fragment : name = chromosome_X", "a b $",
" #comment1 ", "\t>genome_name_2",
"#data::fragment:name=scaffold111", "a $", "", "\n\t"
]
file_like = io.StringIO("\n".join(data))
result_bg = GRIMMReader.get_breakpoint_graph(file_like,
merge_edges=False)
self.assertTrue(isinstance(result_bg, BreakpointGraph))
self.assertEqual(len(list(result_bg.connected_components_subgraphs())),
3)
self.assertEqual(len(list(result_bg.edges())), 5)
self.assertEqual(len(list(result_bg.nodes())), 7)
multicolors = [
Multicolor(BGGenome("genome_name_1")),
Multicolor(BGGenome("genome_name_2"))
]
condensed_multicolors = [
Multicolor(BGGenome("genome_name_1")),
Multicolor(BGGenome("genome_name_2")),
Multicolor(BGGenome("genome_name_1"), BGGenome("genome_name_2"))
]
for bgedge in result_bg.edges():
self.assertTrue(bgedge.multicolor in multicolors)
for bgedge in result_bg.edges():
condensed_edge = result_bg.get_condensed_edge(
vertex1=bgedge.vertex1, vertex2=bgedge.vertex2)
self.assertTrue(condensed_edge.multicolor in condensed_multicolors)
infinity_edges = [
bgedge for bgedge in result_bg.edges() if bgedge.is_infinity_edge
]
self.assertEqual(len(infinity_edges), 4)
for bgedge in result_bg.edges():
data = bgedge.data
self.assertIn("fragment", data)
self.assertIsInstance(data["fragment"], dict)
self.assertIn("name", data["fragment"])
self.assertIn(data["fragment"]["name"],
{"chromosome_X", "scaffold111"})
ah = result_bg.get_vertex_by_name("ah")
bt = result_bg.get_vertex_by_name("bt")
ahi = result_bg.get_vertex_by_name("ah__infinity")
edge = result_bg.get_edge_by_two_vertices(vertex1=ah, vertex2=bt)
self.assertTupleEqual(edge.data["fragment"]["forward_orientation"],
(ah, bt))
iedge = result_bg.get_edge_by_two_vertices(vertex1=ah, vertex2=ahi)
self.assertTupleEqual(iedge.data["fragment"]["forward_orientation"],
(ah, ahi))
def test_data_update_non_dict_source(self):
edge = BGEdge(
vertex1=TaggedBlockVertex("v1"),
vertex2=TaggedBlockVertex("v2"),
multicolor=Multicolor(self.genome1, self.genome2),
data={"fragment": {
"name": "scaffold2",
"origin": "test"
}})
for source in [1, "2", Multicolor(), (1, ), [
2,
]]:
with self.assertRaises(ValueError):
edge.update_data(source=source)
def test_update(self):
# multicolor can be updated by multiple arguments
# they shall add information about colors (if color was not present before) and/or their multiplicity
# change is inplace
mc = Multicolor()
self.assertSetEqual(set(), mc.colors)
mc.update(self.genome1)
self.assertEqual(len(mc.colors), 1)
self.assertEqual(len(mc.multicolors), 1)
self.assertSetEqual({self.genome1}, mc.colors)
mc.update(self.genome2, self.genome3)
self.assertEqual(len(mc.colors), 3)
self.assertEqual(len(mc.multicolors), 3)
self.assertSetEqual({self.genome1, self.genome2, self.genome3},
mc.colors)
for color in mc.multicolors:
self.assertEqual(mc.multicolors[color], 1)
mc.update(self.genome1)
self.assertEqual(len(mc.colors), 3)
self.assertEqual(len(mc.multicolors), 3)
for color in mc.multicolors:
if color == self.genome1:
self.assertEqual(mc.multicolors[color], 2)
else:
self.assertEqual(mc.multicolors[color], 1)
self.assertSetEqual({self.genome1, self.genome2, self.genome3},
mc.colors)
def test_merging_correct(self):
# two BGEdges can be merged together into a third, separate BGEdge
# that would contain information from both supplied BGEdges in terms of colors and multiplicities
# such merge is allowed only if a pair of vertices in both BGEdges is the same
# ordering of vertices if not a concern, since edges in BreakpointGraph are not directed
v1 = BlockVertex("v1")
v2 = BlockVertex("v2")
multicolor = Multicolor(self.genome3)
multicolor1 = Multicolor(self.genome2)
edge1 = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
edge2 = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor1)
merged_edge = BGEdge.merge(edge1, edge2)
self.assertEqual(merged_edge.vertex1, v1)
self.assertEqual(merged_edge.vertex2, v2)
self.assertEqual(merged_edge.multicolor, multicolor + multicolor1)
def test_json_serialization(self):
# simple case of serialization, single color, no multiplicity
v1, v2 = BlockVertex("v1"), BlockVertex("v2")
color1 = BGGenome("genome1")
multicolor = Multicolor(color1)
edge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
ref_result = {
"vertex1_id": v1.json_id,
"vertex2_id": v2.json_id,
"multicolor": [color1.json_id]
}
self.assertDictEqual(edge.to_json(schema_info=False), ref_result)
# case where multiple colors are present, multiplicity is 1 for every of them
color2 = BGGenome("genome2")
multicolor = Multicolor(color1, color2)
edge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
result = edge.to_json()
self.assertTrue(isinstance(result, dict))
self.assertEqual(result["vertex1_id"], v1.json_id)
self.assertEqual(result["vertex2_id"], v2.json_id)
self.assertSetEqual(set(result["multicolor"]),
{color1.json_id, color2.json_id})
self.assertEqual(result[BGEdge_JSON_SCHEMA_JSON_KEY],
edge.json_schema_name)
# case where multiple colors are present, multiplicity is both 1 and greater than 1
color3 = BGGenome("genome3")
multicolor = Multicolor(color1, color1, color1, color2, color2, color3)
edge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
result = edge.to_json(schema_info=False)
self.assertTrue(isinstance(result, dict))
self.assertEqual(result["vertex1_id"], v1.json_id)
self.assertEqual(result["vertex2_id"], v2.json_id)
self.assertSetEqual(set(result["multicolor"]),
{color1.json_id, color2.json_id, color3.json_id})
self.assertDictEqual(
Counter(result["multicolor"]),
Counter(color.json_id
for color in multicolor.multicolors.elements()))
# weird case when a vertex1/vertex attribute in edge is not an instance of BGVertex
# and moreover it does not have "json_id" attribute
edge = BGEdge(vertex1=v1, vertex2=1, multicolor=Multicolor(color1))
result = edge.to_json()
self.assertTrue(isinstance(result, dict))
self.assertEqual(result["vertex1_id"], v1.json_id)
self.assertEqual(result["vertex2_id"], hash(1))
self.assertListEqual(result["multicolor"], [color1.json_id])
self.assertEqual(result[BGEdge_JSON_SCHEMA_JSON_KEY],
edge.json_schema_name)
def test__sub__(self):
# - operator os overloaded to provide "delete" alike behaviour, but with a creation of a new Multicolor instance
# only Multicolor instance is supported as an argument
# for any other argument type a TypeError is raised
mc1 = Multicolor(self.genome1, self.genome3, self.genome1,
self.genome2)
mc2 = Multicolor(self.genome3, self.genome2, self.genome5)
mc3 = mc1 - mc2
self.assertEqual(len(mc3.colors), 1)
self.assertEqual(len(mc3.multicolors), 1)
self.assertEqual(mc3.multicolors[self.genome1], 2)
self.assertSetEqual({self.genome1}, mc3.colors)
mc4 = Multicolor() - mc2
self.assertEqual(mc4, Multicolor())
with self.assertRaises(TypeError):
mc1 - 5
def test__isub__(self):
# -= operator is overloaded and support only Multicolor instance as an argument
# for any other argument a TypeError is raised
# behalves just like the "delete" method
mc1 = Multicolor(self.genome1, self.genome3, self.genome1,
self.genome2)
mc2 = Multicolor(self.genome3, self.genome2, self.genome5)
mc1_id = id(mc1)
mc1 -= mc2
self.assertEqual(len(mc1.colors), 1)
self.assertEqual(len(mc1.multicolors), 1)
self.assertEqual(mc1.multicolors[self.genome1], 2)
self.assertSetEqual({self.genome1}, mc1.colors)
self.assertEqual(id(mc1), mc1_id)
with self.assertRaises(TypeError):
mc1 -= 5
def test_initialization_non_empty_data_attribute(self):
v1 = TaggedBlockVertex("v1")
v2 = TaggedBlockVertex("v2")
multicolor = Multicolor(self.genome1)
data = {"fragment": {"name": "scaffold1"}}
edge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor, data=data)
self.assertDictEqual(edge.data, data)
def test_get_fragments_grimm_from_breakpoint_graph_single_genome_with_repeat_based_merges(
self):
data = [
">Mouse", "# data :: fragment : name = scaffold1",
"1 ALC__repeat $", "# data :: fragment : name = scaffold2",
"ALC__repeat 2 $", "# data :: fragment : name = scaffold3",
"ALC__repeat 3 $"
]
bg = self._populate_bg(data=data)
iv1 = bg.get_vertex_by_name("1h__repeat:ALCt__infinity")
iv2 = bg.get_vertex_by_name("2t__repeat:ALCh__infinity")
v1 = bg.get_vertex_by_name("1h")
v2 = bg.get_vertex_by_name("2t")
kbreak = KBreak(start_edges=[(v1, iv1), (v2, iv2)],
result_edges=[(v1, v2), (iv1, iv2)],
multicolor=Multicolor(BGGenome("Mouse")))
bg.apply_kbreak(kbreak=kbreak)
grimm_strings = GRIMMWriter.get_fragments_in_grimm_from_breakpoint_graph(
bg=bg)
possibilities_1 = ["scaffold1 scaffold2 $", "-scaffold2 -scaffold1 $"]
possibilities_3 = ["scaffold3 $", "-scaffold3 $"]
self.assertTrue(
any(map(lambda entry: entry in grimm_strings, possibilities_1)))
self.assertTrue(
any(map(lambda entry: entry in grimm_strings, possibilities_3)))
def from_assembly_points_file(cls, separated_values):
info = AssemblyPointInfo()
info.target_color = Multicolor(
BGGenome(separated_values["genome"].strip()))
repeats = separated_values["repeat1 - repeat2"].strip()
repeat1, repeat2 = repeats.split(" - ")
repeat_info = {
"repeat_name_1": repeat1[:-3],
"repeat_dir_1": repeat1[-2],
"repeat_name_2": repeat2[:-3],
"repeat_dir_2": repeat2[-2]
}
support_edge_existed = separated_values["s_edge"]
info.support_edge = support_edge_existed
repeat_guidance = separated_values["repeat_guidance"].strip()
repeat_guidance = repeat_guidance.split(", ")
repeat_info["repeat_guidance"] = repeat_guidance
info.repeat_info = repeat_info
target_multicolor = Multicolor(*list(
map(lambda entry: BGGenome(entry),
separated_values["MC"].strip().split(", "))))
info.target_multicolor = target_multicolor
result = cls()
result.id = separated_values["id"].strip()
result.cc_id = separated_values.get("cc_id", None).strip()
vertices = separated_values["v1 - v2"]
vertex1, vertex2 = vertices.split(" - ")
vertex1, vertex2 = vertex1.strip(), vertex2.strip()
result.vertex1 = vertex1
result.vertex2 = vertex2
fragments = separated_values["fragment1 - fragment2"].strip()
fragment1, fragment2 = fragments.split(" - ")
fragment1, fragment2 = fragment1.strip(), fragment2.strip()
result.fragment1 = fragment1
result.fragment2 = fragment2
result.fragment1_sign = "-" if result.fragment1.startswith(
"-") else "+"
result.fragment2_sign = "-" if result.fragment2.startswith(
"-") else "+"
if result.fragment1.startswith("-"):
result.fragment1 = result.fragment1[1:]
if result.fragment2.startswith("-"):
result.fragment2 = result.fragment2[1:]
result.info = info
return result
def __init__(self,
newick=None,
newick_format=1,
dist=DEFAULT_EDGE_LENGTH,
leaf_wrapper=BGGenome):
self.tree = Tree(newick=newick, format=newick_format, dist=dist)
self.__root = self.tree
self.__leaf_wrapper = leaf_wrapper # a callable, that would be called with leaf name as an argument for Multicolor class
self.multicolors_are_up_to_date = False
self.__tree_consistent_multicolors_set = {
Multicolor().hashable_representation
}
self.__tree_consistent_multicolors = [Multicolor()]
self.__vtree_consistent_multicolors_set = {
Multicolor().hashable_representation
}
self.__vtree_consistent_multicolors = [Multicolor()]
def test__lt__and__le__(self):
# multicolor are compared as follows:
# for all the colors in the left argument of comparison, checks that multiplicity of that color in right argument is
# less (less-equal)
mc1 = Multicolor(self.genome1, self.genome2, self.genome1)
mc2 = Multicolor(self.genome1, self.genome2)
self.assertTrue(mc2 < mc1)
self.assertTrue(mc2 <= mc1)
self.assertFalse(mc2 <= 5)
self.assertFalse(mc2 < 5)
mc2 = Multicolor(self.genome1, self.genome1, self.genome2)
self.assertFalse(mc2 < mc1)
self.assertTrue(mc2 <= mc1)
mc2 = Multicolor(self.genome1, self.genome1, self.genome2,
self.genome2)
self.assertFalse(mc2 < mc1)
self.assertFalse(mc2 <= mc1)
def test_initialization(self):
# simple correct initialization of BGEdge instance
v1 = BlockVertex("v1")
v2 = BlockVertex("v2")
multicolor = Multicolor(self.genome3)
edge = BGEdge(vertex1=v1, vertex2=v2, multicolor=multicolor)
self.assertEqual(edge.vertex1, v1)
self.assertEqual(edge.vertex2, v2)
self.assertEqual(edge.multicolor, multicolor)
def test__add__(self):
# + operator is overloaded and works just like a "merge" method, but support only Multicolor instance as an argument
# for any other type of argument a TypeError is raised
mc1 = Multicolor(self.genome1, self.genome2)
mc2 = Multicolor(self.genome3, self.genome5, self.genome1)
mc3 = mc1 + mc2
self.assertEqual(len(mc3.colors), 4)
self.assertEqual(len(mc3.multicolors), 4)
self.assertSetEqual(
{self.genome1, self.genome2, self.genome3, self.genome5},
mc3.colors)
for color in mc3.multicolors:
if color == self.genome1:
self.assertEqual(mc3.multicolors[color], 2)
else:
self.assertEqual(mc3.multicolors[color], 1)
with self.assertRaises(TypeError):
mc1 + 5
def __get_v_tree_consistent_leaf_based_hashable_multicolors(self):
""" Internally used method, that recalculates VTree-consistent sets of leaves in the current tree """
result = []
nodes = deque([self.__root])
while len(nodes) > 0:
current_node = nodes.popleft()
children = current_node.children
nodes.extend(children)
if not current_node.is_leaf():
leaves = filter(lambda node: node.is_leaf(),
current_node.get_descendants())
result.append(
Multicolor(
*[self.__leaf_wrapper(leaf.name) for leaf in leaves]))
else:
result.append(
Multicolor(self.__leaf_wrapper(current_node.name)))
result.append(Multicolor())
return result
def get_full_irregular_multicolor(vertex, data, graph=None):
result = Multicolor()
if graph is None:
bg = data["gos-asm"]["bg"]
else:
bg = graph
for edge in bg.get_edges_by_vertex(vertex):
if edge.is_irregular_edge:
result += edge.multicolor
return result
def get_full_support_edge(regular_vertex1, regular_vertex2, data):
bg = data["gos-asm"]["bg"]
multicolor = Multicolor(*[
color
for bgedge in bg.edges_between_two_vertices(vertex1=regular_vertex1,
vertex2=regular_vertex2)
for color in bgedge.multicolor.colors
])
return BGEdge(vertex1=regular_vertex1,
vertex2=regular_vertex2,
multicolor=multicolor)
def test__mull__(self):
# empty multicolor shall be kept as is regardless of multiplier
mc = Multicolor()
for multiplier in range(10):
self.assertEqual(mc * multiplier, Multicolor())
# multiplying by 0 shall make any multicolor an empty one
mc1 = Multicolor(self.genome1)
self.assertEqual(mc1 * 0, Multicolor())
mc2 = Multicolor(self.genome1, self.genome2, self.genome3)
self.assertEqual(mc2 * 0, Multicolor())
mc3 = Multicolor(self.genome1, self.genome2, self.genome1)
self.assertEqual(mc3 * 0, Multicolor())
# multiplying by an integer shall multiply each color multiplicity respectively
mc = Multicolor(self.genome1, self.genome2, self.genome3, self.genome1,
self.genome2, self.genome1)
for multiplier in range(1, 50):
ref_multicolor = Multicolor()
for _ in range(multiplier):
ref_multicolor += mc
self.assertEqual(mc * multiplier, ref_multicolor)
def test_multiple_initialization(self):
# cases when multiple genomes with different multiplicities (from 1 to >1 are specified)
mc = Multicolor(self.genome1, self.genome2, self.genome3)
self.assertEqual(len(mc.colors), 3)
self.assertEqual(len(mc.multicolors), 3)
self.assertSetEqual({self.genome1, self.genome2, self.genome3},
mc.colors)
for color in mc.multicolors:
self.assertEqual(mc.multicolors[color], 1)
mc = Multicolor(*[self.genome1, self.genome2, self.genome3])
self.assertEqual(len(mc.colors), 3)
self.assertEqual(len(mc.multicolors), 3)
self.assertSetEqual({self.genome1, self.genome2, self.genome3},
mc.colors)
for color in mc.multicolors:
self.assertEqual(mc.multicolors[color], 1)
mc1 = Multicolor(self.genome1, self.genome2, self.genome1)
self.assertEqual(len(mc1.colors), 2)
self.assertEqual(mc1.multicolors[self.genome2], 1)
self.assertEqual(mc1.multicolors[self.genome1], 2)