Beispiel #1
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    def testDPA(self):
        with open("CandidateESCLoc_East.txt", "r") as myfile:
            data = myfile.readlines()

        esc_loc_x = [x / 1000.0 for x in eval(data[0])]
        esc_loc_y = [y / 1000.0 for y in eval(data[1])]

        centers = zip(esc_loc_x, esc_loc_y)

        with open("DPA1.txt", "r") as myfile:
            data = myfile.readlines()

        dpa_loc_x = [x / 1000.0 for x in eval(data[0])]
        dpa_loc_y = [y / 1000.0 for y in eval(data[1])]
        dpa_loc = zip(dpa_loc_x, dpa_loc_y)

        poly = Polygon(dpa_loc)

        coverage_file = "detection-coverage/ITMDetectionCoverage_90deg.txt"

        min_ctr_dist = 0

        cover = antennacover.min_antenna_area_cover_greedy(
            centers, poly, coverage_file, min_center_distance=min_ctr_dist)
        testName = "DPA1"
        printcover.printAntennaCover(testName, poly, centers, cover,
                                     coverage_file, min_ctr_dist)
Beispiel #2
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 def testEstuaryAnneal(self):
     """
     Test simulated annealing.
     """
     interference_contour = [(20, 55), (35, 65), (40, 60), (45, 65),
                             (50, 55)]
     possible_centers = [(20, 46), (25, 30), (30, 20), (40, 15), (50, 30),
                         (60, 50)]
     antennacover.NDIVISIONS = 200
     min_ctr_dist = 0
     coverage_file = "detection-coverage/ITMDetectionCoverage_60deg.json"
     testName = "Estuary"
     poly = excessarea.generate_bounding_polygon(possible_centers,
                                                 interference_contour)
     cover = antennacover.min_antenna_area_cover_greedy(
         possible_centers,
         poly,
         coverage_file,
         min_center_distance=min_ctr_dist)
     printcover.printAntennaCover(testName, poly, possible_centers, cover,
                                  coverage_file, min_ctr_dist)
     annealr = simannealer.SimAnneal(poly, coverage_file, cover)
     annealr.anneal()
     testName = "EstuaryAnneal"
     improved_cover = annealr.get_result()
     printcover.printAntennaCover(testName, poly, possible_centers,
                                  improved_cover, coverage_file,
                                  min_ctr_dist)
Beispiel #3
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    def testEastCoastAnneal(self):
        with open("InterfContour_EastCoast.txt", "r") as myfile:
            data = myfile.readlines()
        esc_loc_x = [x / 1000.0 for x in eval(data[0])]
        esc_loc_y = [x / 1000.0 for x in eval(data[1])]
        ship_loc_x = [x / 1000.0 for x in eval(data[2])]
        ship_loc_y = [x / 1000.0 for x in eval(data[3])]
        centers = []
        for i in range(0, len(esc_loc_x)):
            center = (esc_loc_x[i], esc_loc_y[i])
            centers.append(center)

        interference_contour = []
        for i in range(0, len(ship_loc_x)):
            p = (ship_loc_x[i], ship_loc_y[i])
            interference_contour.append(p)

        testName = "EastCoast"
        min_ctr_dist = 0
        coverage_file = "DetectionCoverage_60deg.txt"
        poly = excessarea.generate_bounding_polygon(centers,
                                                    interference_contour)
        cover = antennacover.min_antenna_area_cover_greedy(
            centers, poly, coverage_file, min_center_distance=min_ctr_dist)
        printcover.printAntennaCover(testName, poly, centers, cover,
                                     coverage_file, min_ctr_dist)
        testName = "EastCoastAnneal"
        annealr = simannealer.SimAnneal(poly, coverage_file, cover)
        annealr.anneal()
        improved_cover = annealr.get_result()
        printcover.printAntennaCover(testName, poly, centers, improved_cover,
                                     coverage_file, min_ctr_dist)
Beispiel #4
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    def testVBAnneal(self):
        # Convert all units to Km
        esc_loc_x = [
            x / 1000.0 for x in [
                1771380, 1769310, 1769790, 1768380, 1767390, 1764690, 1762020,
                1759920, 1753110, 1741950, 1752210, 1757010, 1761870, 1768230,
                1772820, 1777110, 1781610, 1786920, 1793220
            ]
        ]
        esc_loc_y = [
            y / 1000.0 for y in [
                1827030, 1817070, 1806990, 1797090, 1787100, 1776840, 1767270,
                1756950, 1746690, 1735050, 1727220, 1717290, 1707360, 1697370,
                1687320, 1677450, 1667400, 1657350, 1647360
            ]
        ]
        ship_loc_x = [
            x / 1000.0 for x in [
                1847012, 1844913, 1845660, 1834150, 1823280, 1811715, 1807512,
                1806671, 1810710, 1807769, 1817910, 1822503, 1827218, 1823623,
                1828432, 1842183, 1846928, 1852378, 1858591
            ]
        ]
        ship_loc_y = [
            y / 1000.0 for y in [
                1843636, 1833617, 1823583, 1811442, 1799284, 1787072, 1777140,
                1767066, 1759078, 1749183, 1741311, 1731358, 1721401, 1709309,
                1699318, 1691518, 1681523, 1671542, 1661589
            ]
        ]

        centers = []
        for i in range(0, len(esc_loc_x)):
            center = (esc_loc_x[i], esc_loc_y[i])
            centers.append(center)

        interference_contour = []
        for i in range(0, len(ship_loc_x)):
            p = (ship_loc_x[i], ship_loc_y[i])
            interference_contour.append(p)

        testName = "VirginiaBeach"
        min_ctr_dist = 60
        coverage_file = "detection-coverage/ITMDetectionCoverage_60deg.json"
        poly = excessarea.generate_bounding_polygon(centers,
                                                    interference_contour)
        cover = antennacover.min_antenna_area_cover_greedy(
            centers, poly, coverage_file, min_center_distance=min_ctr_dist)
        printcover.printAntennaCover(testName, poly, centers, cover,
                                     coverage_file, min_ctr_dist)
        testName = "VirginiaBeachAnneal"
        annealr = simannealer.SimAnneal(poly, coverage_file, cover)
        annealr.anneal()
        improved_cover = annealr.get_result()
        printcover.printAntennaCover(testName, poly, centers, improved_cover,
                                     coverage_file, min_ctr_dist)
Beispiel #5
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    def testSFAnneal(self):
        esc_loc_x = m_to_km([
            -2300850, -2297160, -2284680, -2283390, -2284800, -2289540,
            -2287620, -2287740, -2287620, -2291760, -2289540, -2283720,
            -2279730, -2254320, -2252430, -2253120, -2256900, -2273160,
            -2273970, -2273910
        ])
        esc_loc_y = m_to_km([
            1986840, 1977120, 1966620, 1957680, 1947570, 1937730, 1926720,
            1917720, 1907880, 1897830, 1887360, 1876560, 1867620, 1852470,
            1843620, 1833720, 1824660, 1817640, 1807710, 1797930
        ])
        ship_loc_x = m_to_km([
            -2414875, -2401190, -2405002, -2406089, -2407670, -2402495,
            -2402056, -2400759, -2390693, -2394883, -2393517, -2394351,
            -2393072, -2396507, -2393492, -2394127, -2399780, -2396297,
            -2387368, -2387021
        ])
        ship_loc_y = m_to_km([
            2019979, 2007266, 2001267, 1992909, 1982826, 1970152, 1959565,
            1950068, 1937330, 1927338, 1917048, 1908072, 1899767, 1892623,
            1883306, 1873335, 1864772, 1852304, 1839577, 1829662
        ])

        centers = []
        for i in range(0, len(esc_loc_x)):
            center = (esc_loc_x[i], esc_loc_y[i])
            centers.append(center)
        interference_contour = []
        for i in range(0, len(ship_loc_x)):
            p = (ship_loc_x[i], ship_loc_y[i])
            interference_contour.append(p)

        testName = "SanFrancisco"
        min_ctr_dist = 60
        coverage_file = "detection-coverage/ITMDetectionCoverage_60deg.json"
        poly = excessarea.generate_bounding_polygon(centers, line_endpoints)
        cover = antennacover.min_antenna_area_cover_greedy(
            centers, poly, coverage_file, min_center_distance=min_ctr_dist)
        printcover.printAntennaCover(testName, poly, centers, cover,
                                     coverage_file, min_ctr_dist)
        testName = "SanFranciscoAnneal"
        annealr = simannealer.SimAnneal(poly, coverage_file, cover)
        annealr.anneal()
        improved_cover = annealr.get_result()
        printcover.printAntennaCover(testName, poly, centers, improved_cover,
                                     coverage_file, min_ctr_dist)
Beispiel #6
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 def testEstuary1(self):
     """
     Test for a deep estuary.
     """
     interference_contour = [(20, 55), (35, 65), (40, 60), (45, 65),
                             (50, 55)]
     possible_centers = [(20, 46), (25, 30), (30, 20), (40, 15), (50, 30),
                         (60, 50)]
     min_ctr_dist = 0
     poly = excessarea.generate_bounding_polygon(possible_centers,
                                                 interference_contour)
     cover = antennacover.min_antenna_area_cover_greedy(
         possible_centers,
         poly,
         "detection-coverage/ITMDetectionCoverage_90deg.json",
         min_center_distance=min_ctr_dist)
     testName = "Estuary"
     printcover.printAntennaCover(
         testName, poly, possible_centers, cover,
         "detection-coverage/ITMDetectionCoverage_90deg.json", min_ctr_dist)
Beispiel #7
0
    with open (protection_region, "r") as myfile:
        data=myfile.readlines()

    # Units are in Km. This should be converted to json format.
    esc_loc_x = [x/1000.0 for x in  eval(data[0])]
    esc_loc_y = [x/1000.0 for x in  eval(data[1])]
    ship_loc_x = [x/1000.0 for x in  eval(data[2])]
    ship_loc_y = [x/1000.0 for x in  eval(data[3])]

    possible_centers = []
    for i in range(0,len(esc_loc_x)):
        center = (esc_loc_x[i],esc_loc_y[i])
        possible_centers.append(center)

    interference_contour = []
    for i in range(0,len(ship_loc_x)):
        p = (ship_loc_x[i],ship_loc_y[i])
        interference_contour.append(p)

    bounding_polygon = excess_area.generate_bounding_polygon(possible_centers,interference_contour)
    testName = output_file
    cover = antennacover.min_antenna_area_cover_greedy(possible_centers, bounding_polygon, coverage_file, min_center_distance=min_ctr_dist,tol=tol)
    printcover.printAntennaCover(output_file,bounding_polygon, possible_centers, cover,coverage_file,min_ctr_dist)
    if do_anneal:
        annealr = simannealer.SimAnneal(bounding_polygon, possible_centers, coverage_file,cover,steps=args.anneal,tol=tol)
        annealr.anneal()
        cover = annealr.get_result()
        printcover.printAntennaCover(output_file + "Anneal", bounding_polygon, possible_centers, cover,coverage_file,min_ctr_dist)


                    s[1] for s in sorted_detection_coverage_files
                ]
            else:
                # We are given a single antenna cover file.
                detection_coverage_files = [detection_coverage_dir]

            print "Antenna Detection Coverage files ", detection_coverage_files
            min_cover_lobes = None
            for detection_coverage_file in detection_coverage_files:
                # Read the aperture angle from the file.
                antenna_cover_patterns = antennacover.read_detection_coverage(
                    detection_coverage_file, coverage_units="m")
                cover = antennacover.min_antenna_area_cover_greedy(
                    candidate_locs,
                    dpa_polygon,
                    detection_coverage_file,
                    min_center_distance=0,
                    tol=.005,
                    coverage_units="m")
                cover_lobes = None
                for c in cover:
                    center = c[0]
                    index = c[1]
                    angle = c[2]
                    lobe = antennacover.translate_and_rotate(
                        antenna_cover_patterns, center, index, angle)
                    if cover_lobes is None:
                        cover_lobes = lobe
                    else:
                        cover_lobes = cover_lobes.union(lobe)
                #print "--- AREA ---", cover_lobes.area