build.tests.integration.test_results_edges.TestResultsEdges.test_path9() - Code Metrics - Inspection of "Merge all marvin" - kytos/pathfinder - Measure and Improve Code Quality continuously with Scrutinizer

Test Failed
Pull Request — master (#68)

by Arturo
created 2021-02-09 16:39 UTC
TestResultsEdges.test_path9() C

↳ Parent: build.tests.integration.test_results_edges
Complexity

Conditions
Size

Total Lines	73
Code Lines	58
Duplication

Lines	22
Ratio	30.14 %
Importance

Changes
Metric	Value
cc	10
eloc	58
nop	1
dl	22
loc	73
rs	5.5744
c	0
b	0
f	0
How to fix Long Method Complexity

Long Method

Small methods make your code easier to understand, in particular if combined with a good name. Besides, if your method is small, finding a good name is usually much easier.
For example, if you find yourself adding comments to a method's body, this is usually a good sign to extract the commented part to a new method, and use the comment as a starting point when coming up with a good name for this new method.
Commonly applied refactorings include:
If many parameters/temporary variables are present:
- Replace temporary variables with Query
- Introduce parameter object; often combined with preserve whole object
- If the above two are insufficient: Replace method with method object
If you have long conditionals: Decompose Conditional
Otherwise: Extract method
Complexity

Complex classes like build.tests.integration.test_results_edges.TestResultsEdges.test_path9() often do a lot of different things. To break such a class down, we need to identify a cohesive component within that class. A common approach to find such a component is to look for fields/methods that share the same prefixes, or suffixes.
Once you have determined the fields that belong together, you can apply the Extract Class refactoring. If the component makes sense as a sub-class, Extract Subclass is also a candidate, and is often faster.
"""Module to test the KytosGraph in graph.py."""
from itertools import combinations

# Core modules to import
from kytos.core.link import Link

# module under test
from tests.integration.test_results import TestResults


class TestResultsEdges(TestResults):
    """Tests for the graph class.

    Tests to see if reflexive searches and impossible searches
    show correct results.
    """

    def test_path1(self):
        """Tests paths between all users using unconstrained path algorithm."""
        combos = combinations(["User1", "User2", "User3", "User4"], 2)
        self.initializer()

        valid = True
        for point_a, point_b in combos:
            results = self.get_path(point_a, point_b)
            if not results:
                valid = False
                break

        self.assertNotEqual(valid, False)

    def test_path12(self):
        """Tests paths between all users using unconstrained path algorithm."""
        combos = combinations(["User1", "User2", "User3", "User4", "User5"], 2)
        self.initializer()

        valid = True
        for point_a, point_b in combos:
            results = self.get_path(point_a, point_b)
            if not results:
                valid = False
                break

        self.assertEqual(valid, False)

    def test_path2(self):
        """Tests paths between all users using constrained path algorithm,
        with no constraints set.
        """
        combos = combinations(["User1", "User2", "User3", "User4"], 2)
        self.initializer()

        for point_a, point_b in combos:
            results = self.get_path_constrained(point_a, point_b)
            self.assertNotEqual(results, [])

    def paths_between_all_users(self, item, base):
        combos = combinations(["User1", "User2", "User3", "User4"], 2)
        self.initializer()

        my_key, my_val = next(iter(base.items()))
        base = {my_key: my_val}

        valid = True
        for point_a, point_b in combos:
            results = self.get_path_constrained(
                point_a, point_b, base=base)
            for result in results:
                for path in result["paths"]:
                    if item in path:
                        valid = False

        return valid

    def test_path3_1(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S4:1", {'ownership': "B"}))

    def test_path3_2(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S5:2", {'ownership': "B"}))

    def test_path3_3(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S4:2", {'ownership': "B"}))

    def test_path3_4(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("User1:2", {'ownership': "B"}))

    def test_path3_5(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S5:4", {'ownership': "B"}))

    def test_path3_6(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S6:2", {'ownership': "B"}))

    def test_path3_7(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S6:5", {'ownership': "B"}))

    def test_path3_8(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S10:1", {'ownership': "B"}))

    def test_path3_9(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S8:6", {'ownership': "B"}))

    def test_path3_1_0(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S10:2", {'ownership': "B"}))

    def test_path3_1_1(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("S10:3", {'ownership': "B"}))

    def test_path3_1_2(self):
        """Tests paths between all users using constrained path algorithm,
        with the ownership constraint set to B.
        """
        self.assertTrue(self.paths_between_all_users("User2:1", {'ownership': "B"}))

    def test_path4_1(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("S4:1", {'reliability': 3}))

    def test_path4_2(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("S5:2", {'reliability': 3}))

    def test_path4_3(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("S5:3", {'reliability': 3}))

    def test_path4_4(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("S6:1", {'reliability': 3}))

    def test_path5_1(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("S3:1", {'bandwidth': 100}))

    def test_path5_2(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("S5:1", {'bandwidth': 100}))

    def test_path5_3(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("User1:4", {'bandwidth': 100}))

    def test_path5_4(self):
        """Tests paths between all users using constrained path algorithm,
        with the reliability constraint set to 3.
        """
        self.assertTrue(self.paths_between_all_users("User4:3", {'bandwidth': 100}))

    def test_path6_1(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S1:1", {'delay': 50}))

    def test_path6_2(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S2:1", {'delay': 50}))

    def test_path6_3(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S3:1", {'delay': 50}))

    def test_path6_4(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S5:1", {'delay': 50}))

    def test_path6_5(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S4:2", {'delay': 50}))

    def test_path6_6(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("User1:2", {'delay': 50}))

    def test_path6_7(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S5:5", {'delay': 50}))

    def test_path6_8(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S8:2", {'delay': 50}))

    def test_path6_9(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S5:6", {'delay': 50}))

    def test_path6_1_0(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("User1:3", {'delay': 50}))

    def test_path6_1_1(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S6:3", {'delay': 50}))

    def test_path6_1_2(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S9:1", {'delay': 50}))

    def test_path6_1_3(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S6:4", {'delay': 50}))

    def test_path6_1_4(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S9:2", {'delay': 50}))

    def test_path6_1_5(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S6:5", {'delay': 50}))

    def test_path6_1_6(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S6:5", {'delay': 50}))

    def test_path6_1_7(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S10:1", {'delay': 50}))

    def test_path6_1_8(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S8:5", {'delay': 50}))

    def test_path6_1_9(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("S9:4", {'delay': 50}))

    def test_path6_2_0(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("User1:4", {'delay': 50}))

    def test_path6_2_1(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50.
        """
        self.assertTrue(self.paths_between_all_users("User4:3", {'delay': 50}))

    def test_path7(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50, the bandwidth constraint set
        to 100, the reliability constraint set to 3, and the ownership
        constraint set to 'B'
        """
        combos = combinations(["User1", "User2", "User3", "User4"], 2)
        self.initializer()

        for point_a, point_b in combos:
            results = self.get_path_constrained(
                point_a, point_b, base=dict(delay=50, bandwidth=100,
                                            reliability=3,
                                            ownership="B"))
            for result in results:
                for path in result["paths"]:
                    # delay = 50 checks
                    self.assertNotIn("S1:1", path)
                    self.assertNotIn("S2:1", path)
                    self.assertNotIn("S3:1", path)
                    self.assertNotIn("S5:1", path)
                    self.assertNotIn("S4:2", path)
                    self.assertNotIn("User1:2", path)
                    self.assertNotIn("S5:5", path)
                    self.assertNotIn("S8:2", path)
                    self.assertNotIn("S5:6", path)
                    self.assertNotIn("User1:3", path)
                    self.assertNotIn("S6:3", path)
                    self.assertNotIn("S9:1", path)
                    self.assertNotIn("S6:4", path)
                    self.assertNotIn("S9:2", path)
                    self.assertNotIn("S6:5", path)
                    self.assertNotIn("S10:1", path)
                    self.assertNotIn("S8:5", path)
                    self.assertNotIn("S9:4", path)
                    self.assertNotIn("User1:4", path)
                    self.assertNotIn("User4:3", path)

                    # bandwidth = 100 checks

                    self.assertNotIn("S3:1", path)
                    self.assertNotIn("S5:1", path)
                    self.assertNotIn("User1:4", path)
                    self.assertNotIn("User4:3", path)

                    # reliability = 3 checks

                    self.assertNotIn("S4:1", path)
                    self.assertNotIn("S5:2", path)
                    self.assertNotIn("S5:3", path)
                    self.assertNotIn("S6:1", path)

                    # ownership = "B" checks

                    self.assertNotIn("S4:1", path)
                    self.assertNotIn("S5:2", path)
                    self.assertNotIn("S4:2", path)
                    self.assertNotIn("User1:2", path)
                    self.assertNotIn("S5:4", path)
                    self.assertNotIn("S6:2", path)
                    self.assertNotIn("S6:5", path)
                    self.assertNotIn("S10:1", path)
                    self.assertNotIn("S8:6", path)
                    self.assertNotIn("S10:2", path)
                    self.assertNotIn("S10:3", path)
                    self.assertNotIn("User2:1", path)

    def test_path8(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50, the bandwidth constraint
        set to 100, the reliability constraint set to 3, and the ownership
        constraint set to 'B'

        Tests conducted with flexibility enabled
        """
        combos = combinations(["User1", "User2", "User3", "User4"], 2)
        self.initializer()

        for point_a, point_b in combos:
            results = self.get_path_constrained(
                point_a, point_b, flexible=dict(delay=50, bandwidth=100,
                                                reliability=3,
                                                ownership="B"))
            for result in results:
                # delay = 50 checks
                if "delay" in result["metrics"]:

                    for path in result["paths"]:
                        self.assertNotIn("S1:1", path)
                        self.assertNotIn("S2:1", path)
                        self.assertNotIn("S3:1", path)
                        self.assertNotIn("S5:1", path)
                        self.assertNotIn("S4:2", path)
                        self.assertNotIn("User1:2", path)
                        self.assertNotIn("S5:5", path)
                        self.assertNotIn("S8:2", path)
                        self.assertNotIn("S5:6", path)
                        self.assertNotIn("User1:3", path)
                        self.assertNotIn("S6:3", path)
                        self.assertNotIn("S9:1", path)
                        self.assertNotIn("S6:4", path)
                        self.assertNotIn("S9:2", path)
                        self.assertNotIn("S6:5", path)
                        self.assertNotIn("S10:1", path)
                        self.assertNotIn("S8:5", path)
                        self.assertNotIn("S9:4", path)
                        self.assertNotIn("User1:4", path)
                        self.assertNotIn("User4:3", path)

                # bandwidth = 100 checks
                if "bandwidth" in result["metrics"]:
                    for path in result["paths"]:
                        self.assertNotIn("S3:1", path)
                        self.assertNotIn("S5:1", path)
                        self.assertNotIn("User1:4", path)
                        self.assertNotIn("User4:3", path)

                # reliability = 3 checks
                if "reliability" in result["metrics"]:
                    for path in result["paths"]:
                        self.assertNotIn("S4:1", path)
                        self.assertNotIn("S5:2", path)
                        self.assertNotIn("S5:3", path)
                        self.assertNotIn("S6:1", path)

                # ownership = "B" checks
                if "ownership" in result["metrics"]:
                    for path in result["paths"]:
                        self.assertNotIn("S4:1", path)
                        self.assertNotIn("S5:2", path)
                        self.assertNotIn("S4:2", path)
                        self.assertNotIn("User1:2", path)
                        self.assertNotIn("S5:4", path)
                        self.assertNotIn("S6:2", path)
                        self.assertNotIn("S6:5", path)
                        self.assertNotIn("S10:1", path)
                        self.assertNotIn("S8:6", path)
                        self.assertNotIn("S10:2", path)
                        self.assertNotIn("S10:3", path)
                        self.assertNotIn("User2:1", path)

    def test_path9(self):
        """Tests paths between all users using constrained path algorithm,
        with the delay constraint set to 50, the bandwidth constraint
        set to 100, the reliability constraint set to 3, and the ownership
        constraint set to 'B'

        Tests conducted with all but ownership flexible
        """
        combos = combinations(["User1", "User2", "User3", "User4"], 2)
        self.initializer()

        for point_a, point_b in combos:
            results = self.get_path_constrained(point_a, point_b,
                                                base={"ownership": "B"},
                                                flexible={"delay": 50,
                                                          "bandwidth": 100,
                                                          "reliability": 3})
            for result in results:
                # delay = 50 checks
                if "delay" in result["metrics"]:

                    for path in result["paths"]:
                        self.assertNotIn("S1:1", path)
                        self.assertNotIn("S2:1", path)
                        self.assertNotIn("S3:1", path)
                        self.assertNotIn("S5:1", path)
                        self.assertNotIn("S4:2", path)
                        self.assertNotIn("User1:2", path)
                        self.assertNotIn("S5:5", path)
                        self.assertNotIn("S8:2", path)
                        self.assertNotIn("S5:6", path)
                        self.assertNotIn("User1:3", path)
                        self.assertNotIn("S6:3", path)
                        self.assertNotIn("S9:1", path)
                        self.assertNotIn("S6:4", path)
                        self.assertNotIn("S9:2", path)
                        self.assertNotIn("S6:5", path)
                        self.assertNotIn("S10:1", path)
                        self.assertNotIn("S8:5", path)
                        self.assertNotIn("S9:4", path)
                        self.assertNotIn("User1:4", path)
                        self.assertNotIn("User4:3", path)

                # bandwidth = 100 checks
                if "bandwidth" in result["metrics"]:
                    for path in result["paths"]:
                        self.assertNotIn("S3:1", path)
                        self.assertNotIn("S5:1", path)
                        self.assertNotIn("User1:4", path)
                        self.assertNotIn("User4:3", path)

                # reliability = 3 checks
                if "reliability" in result["metrics"]:
                    for path in result["paths"]:
                        self.assertNotIn("S4:1", path)
                        self.assertNotIn("S5:2", path)
                        self.assertNotIn("S5:3", path)
                        self.assertNotIn("S6:1", path)

                # ownership = "B" checks
                self.assertIn("ownership", result["metrics"])
                for path in result["paths"]:
                    self.assertNotIn("S4:1", path)
                    self.assertNotIn("S5:2", path)
                    self.assertNotIn("S4:2", path)
                    self.assertNotIn("User1:2", path)
                    self.assertNotIn("S5:4", path)
                    self.assertNotIn("S6:2", path)
                    self.assertNotIn("S6:5", path)
                    self.assertNotIn("S10:1", path)
                    self.assertNotIn("S8:6", path)
                    self.assertNotIn("S10:2", path)
                    self.assertNotIn("S10:3", path)
                    self.assertNotIn("User2:1", path)

    def test_path10(self):
        """Tests that TypeError is generated by get_path_constrained

        Tests with ownership using an int type rather than string
        """
        self.initializer()

        with self.assertRaises(TypeError):
            self.get_path_constrained(
                "User1", "User2", base={"ownership": 1})

    @staticmethod
    def generate_topology():
        """Generates a predetermined topology"""
        switches = {}
        interfaces = {}
        links = {}

        TestResults.create_switch("S1", switches)
        TestResults.add_interfaces(2, switches["S1"], interfaces)

        TestResults.create_switch("S2", switches)
        TestResults.add_interfaces(2, switches["S2"], interfaces)

        TestResults.create_switch("S3", switches)
        TestResults.add_interfaces(6, switches["S3"], interfaces)

        TestResults.create_switch("S4", switches)
        TestResults.add_interfaces(2, switches["S4"], interfaces)

        TestResults.create_switch("S5", switches)
        TestResults.add_interfaces(6, switches["S5"], interfaces)

        TestResults.create_switch("S6", switches)
        TestResults.add_interfaces(5, switches["S6"], interfaces)

        TestResults.create_switch("S7", switches)
        TestResults.add_interfaces(2, switches["S7"], interfaces)

        TestResults.create_switch("S8", switches)
        TestResults.add_interfaces(8, switches["S8"], interfaces)

        TestResults.create_switch("S9", switches)
        TestResults.add_interfaces(4, switches["S9"], interfaces)

        TestResults.create_switch("S10", switches)
        TestResults.add_interfaces(3, switches["S10"], interfaces)

        TestResults.create_switch("S11", switches)
        TestResults.add_interfaces(3, switches["S11"], interfaces)

        TestResults.create_switch("User1", switches)
        TestResults.add_interfaces(4, switches["User1"], interfaces)

        TestResults.create_switch("User2", switches)
        TestResults.add_interfaces(2, switches["User2"], interfaces)

        TestResults.create_switch("User3", switches)
        TestResults.add_interfaces(2, switches["User3"], interfaces)

        TestResults.create_switch("User4", switches)
        TestResults.add_interfaces(3, switches["User4"], interfaces)

        TestResultsEdges._fill_links(links, interfaces)

        TestResultsEdges._add_metadata_to_links(links)

        return switches, links

    @staticmethod
    def _add_metadata_to_links(links):
        links["S1:1<->S2:1"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 105})

        links["S1:2<->User1:1"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 1})

        links["S2:2<->User4:1"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 10})

        links["S3:1<->S5:1"].extend_metadata(
            {"reliability": 5, "bandwidth": 10, "delay": 112})

        links["S3:2<->S7:1"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 1})

        links["S3:3<->S8:1"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 1})

        links["S3:4<->S11:1"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 6})

        links["S3:5<->User3:1"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 1})

        links["S3:6<->User4:2"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 10})

        links["S4:1<->S5:2"].extend_metadata(
            {"reliability": 1, "bandwidth": 100, "delay": 30,
             "ownership": "A"})

        links["S4:2<->User1:2"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 110,
             "ownership": "A"})

        links["S5:3<->S6:1"].extend_metadata(
            {"reliability": 1, "bandwidth": 100, "delay": 40})

        links["S5:4<->S6:2"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 40,
             "ownership": "A"})

        links["S5:5<->S8:2"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 112})

        links["S5:6<->User1:3"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 60})

        links["S6:3<->S9:1"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 60})

        links["S6:4<->S9:2"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 62})

        links["S6:5<->S10:1"].extend_metadata(
            {"bandwidth": 100, "delay": 108, "ownership": "A"})

        links["S7:2<->S8:3"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 1})

        links["S8:4<->S9:3"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 32})

        links["S8:5<->S9:4"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 110})

        links["S8:6<->S10:2"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "ownership": "A"})

        links["S8:7<->S11:2"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 7})

        links["S8:8<->User3:2"].extend_metadata(
            {"reliability": 5, "bandwidth": 100, "delay": 1})

        links["S10:3<->User2:1"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 10,
             "ownership": "A"})

        links["S11:3<->User2:2"].extend_metadata(
            {"reliability": 3, "bandwidth": 100, "delay": 6})

        links["User1:4<->User4:3"].extend_metadata(
            {"reliability": 5, "bandwidth": 10, "delay": 105})

    @staticmethod
    def _fill_links(links, interfaces):
        links["S1:1<->S2:1"] = Link(interfaces["S1:1"], interfaces["S2:1"])

        links["S1:2<->User1:1"] = Link(interfaces["S1:2"], interfaces["User1:1"])

        links["S2:2<->User4:1"] = Link(interfaces["S2:2"], interfaces["User4:1"])

        links["S3:1<->S5:1"] = Link(interfaces["S3:1"], interfaces["S5:1"])

        links["S3:2<->S7:1"] = Link(interfaces["S3:2"], interfaces["S7:1"])

        links["S3:3<->S8:1"] = Link(interfaces["S3:3"], interfaces["S8:1"])

        links["S3:4<->S11:1"] = Link(interfaces["S3:4"], interfaces["S11:1"])

        links["S3:5<->User3:1"] = Link(interfaces["S3:5"], interfaces["User3:1"])

        links["S3:6<->User4:2"] = Link(interfaces["S3:6"], interfaces["User4:2"])

        links["S4:1<->S5:2"] = Link(interfaces["S4:1"], interfaces["S5:2"])

        links["S4:2<->User1:2"] = Link(interfaces["S4:2"], interfaces["User1:2"])

        links["S5:3<->S6:1"] = Link(interfaces["S5:3"], interfaces["S6:1"])

        links["S5:4<->S6:2"] = Link(interfaces["S5:4"], interfaces["S6:2"])

        links["S5:5<->S8:2"] = Link(interfaces["S5:5"], interfaces["S8:2"])

        links["S5:6<->User1:3"] = Link(interfaces["S5:6"], interfaces["User1:3"])

        links["S6:3<->S9:1"] = Link(interfaces["S6:3"], interfaces["S9:1"])

        links["S6:4<->S9:2"] = Link(interfaces["S6:4"], interfaces["S9:2"])

        links["S6:5<->S10:1"] = Link(interfaces["S6:5"], interfaces["S10:1"])

        links["S7:2<->S8:3"] = Link(interfaces["S7:2"], interfaces["S8:3"])

        links["S8:4<->S9:3"] = Link(interfaces["S8:4"], interfaces["S9:3"])

        links["S8:5<->S9:4"] = Link(interfaces["S8:5"], interfaces["S9:4"])

        links["S8:6<->S10:2"] = Link(interfaces["S8:6"], interfaces["S10:2"])

        links["S8:7<->S11:2"] = Link(interfaces["S8:7"], interfaces["S11:2"])

        links["S8:8<->User3:2"] = Link(interfaces["S8:8"], interfaces["User3:2"])

        links["S10:3<->User2:1"] = Link(interfaces["S10:3"], interfaces["User2:1"])

        links["S11:3<->User2:2"] = Link(interfaces["S11:3"], interfaces["User2:2"])

        links["User1:4<->User4:3"] = Link(interfaces["User1:4"], interfaces["User4:3"])

kytos / pathfinder

Pull Request — master (#68)

TestResultsEdges.test_path9() C

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