def setup(self):
        self.start = datetime(2011, 11, 1, 0, 0, 0)
        self.end = datetime(2011, 11, 3, 0, 0, 0)

        self.tels = {
            '1m0a.doma.bpl':
            dict(name='1m0a.doma.bpl',
                 tel_class='1m0',
                 latitude=34.433157,
                 longitude=-119.86308,
                 horizon=25,
                 ha_limit_neg=-12.0,
                 ha_limit_pos=12.0,
                 zenith_blind_spot=0.0)
        }

        self.target = ICRSTarget(
            # ra  = '20 41 25.91',
            # dec = '+45 16 49.22',
            ra=310.35795833333333,
            dec=45.280338888888885)

        self.prop_mot_target = ICRSTarget(
            # ra  = '20 41 25.91',
            # dec = '+45 16 49.22',
            ra=316.73026646,
            dec=38.74205644,
            proper_motion_ra=4106.90,
            proper_motion_dec=3144.68)

        self.instrument_config = dict(exposure_count=1,
                                      bin_x=2,
                                      bin_y=2,
                                      exposure_time=30,
                                      optical_elements={'filter': 'B'})

        self.guiding_config = dict(mode='ON',
                                   optional=True,
                                   optical_elements={},
                                   exposure_time=10)

        self.acquisition_config = dict(mode='OFF')

        self.constraints = {'max_airmass': None, 'min_lunar_distance': 0}

        self.configuration = Configuration(
            dict(id=5,
                 target=self.target,
                 instrument_type='1M0-SCICAM-SINISTRO',
                 type='expose',
                 instrument_configs=[self.instrument_config],
                 guiding_config=self.guiding_config,
                 acquisition_config=self.acquisition_config,
                 constraints=self.constraints))
コード例 #2
0
    def setup(self):
        self.target = ICRSTarget(
            name='deneb',
            # ra  = '20 41 25.91',
            # dec = '+45 16 49.22',
            ra=310.35795833333333,
            dec=45.280338888888885,
            epoch=2000,
        )

        self.telescope = dict(
            name='maui',
            latitude=20.7069444444,
            longitude=-156.258055556,
        )

        self.proposal = Proposal(
            proposal_name='LCOSchedulerTest',
            user='******',
            tag='admin',
            time_remaining=10,  # In hours
            priority=1)

        self.instrument_config = dict(
            exposure_count=1,
            bin_x=2,
            bin_y=2,
            exposure_time=20,
            extra_params={},
            optical_elements={'filter': 'BSSL-UX-020'})

        self.guiding_config = dict(mode='ON',
                                   optional=True,
                                   optical_elements={},
                                   extra_params={},
                                   exposure_time=10)

        self.acquisition_config = dict(mode='OFF', extra_params={})

        self.constraints = {'max_airmass': None, 'min_lunar_distance': 0}

        self.configuration = Configuration(
            dict(id=5,
                 target=self.target,
                 type='expose',
                 instrument_type='1M0-SCICAM-SBIG',
                 priority=1,
                 instrument_configs=[self.instrument_config],
                 acquisition_config=self.acquisition_config,
                 guiding_config=self.guiding_config,
                 extra_params={},
                 constraints=self.constraints))

        self.semester_start = datetime(2011, 11, 1, 0, 0, 0)
        self.semester_end = datetime(2011, 11, 8, 0, 0, 0)
        self.windows = [(self.semester_start, self.semester_end)]

        self.duration = 60
        self.id = 1
コード例 #3
0
    def test_build_rr_observation(self):
        reservation = Reservation(priority=None,
                                  duration=10,
                                  possible_windows_dict={})
        reservation.scheduled_start = 0
        reservation.scheduled_resource = '1m0a.doma.bpl'

        proposal = Proposal({
            'id': 'testPro',
            'tag': 'tagPro',
            'tac_priority': 39,
            'pi': 'me'
        })
        target = ICRSTarget({'name': 'test', 'ra': 23.3, 'dec': 22.2})

        request_group = RequestGroup(operator='single',
                                     requests=None,
                                     proposal=proposal,
                                     expires=None,
                                     rg_id=333333,
                                     is_staff=False,
                                     name=None,
                                     ipp_value=1.0,
                                     observation_type="RAPID_RESPONSE",
                                     submitter='')

        configuration = Mock()
        configuration.guiding_config = {'mode': 'ON', 'optional': True}
        configuration.type = 'EXPOSE'
        configuration.instrument_type = '1M0-FAKE-SCICAM'
        configuration.constraints = {}
        configuration.id = 13
        configuration.target = target

        request = Request(
            configurations=[configuration],
            windows=None,
            request_id=22223,
        )

        reservation.request = request
        reservation.request_group = request_group
        configdb_interface = Mock()
        configdb_interface.get_specific_instrument.return_value = 'xx03'
        configdb_interface.get_autoguider_for_instrument.return_value = 'xx04'
        received = build_observation(reservation, self.start,
                                     configdb_interface)

        assert_equal(received['request'], 22223)
        assert_equal(received['site'], 'bpl')
        assert_equal(received['enclosure'], 'doma')
        assert_equal(received['telescope'], '1m0a')
        assert_equal(received['configuration_statuses'][0]['configuration'],
                     13)
        assert_equal(received['configuration_statuses'][0]['instrument_name'],
                     'xx03')
        assert_equal(
            received['configuration_statuses'][0]['guide_camera_name'], 'xx04')
コード例 #4
0
    def setup(self):
        # Metadata missing proposal and tag parameters
        self.proposal = Proposal(pi='Eric Saunders')

        self.configdb_interface = ConfigDBInterface(
            configdb_url='',
            telescope_classes=[],
            telescopes_file='test/telescopes.json',
            active_instruments_file='test/active_instruments.json')

        self.valid_proposal = Proposal(
            pi='Eric Saunders',
            id='Scheduler Testing',
            tag='admin',
            tac_priority=2,
        )

        self.valid_target = ICRSTarget(
            name='deneb',
            type='ICRS',
            # ra  = '20 41 25.91',
            # dec = '+45 16 49.22',
            ra=310.35795833333333,
            dec=45.280338888888885,
            rot_mode='SKY',
            rot_angle=0.0,
            acquire_mode='OPTIONAL',
        )

        self.valid_expose_mol = dict(
            type='expose',
            exposure_count=1,
            bin_x=2,
            bin_y=2,
            instrument_name='1m0-SciCam-SINISTRO',
            filter='B',
            exposure_time=30,
            priority=1,
            ag_mode='Optional',
            defocus=0.0,
        )
    def test_visibility_intervals_at_low_horizon_are_allowed_by_hour_angle(
            self):

        window_dict = {
            'start': datetime(2013, 3, 22, 0, 0, 0),
            'end': datetime(2013, 3, 23, 0, 0, 0),
        }

        tel_name = '1m0a.doma.coj'
        tel = dict(name=tel_name,
                   tel_class='1m0',
                   latitude=-31.273,
                   longitude=149.070593,
                   horizon=15,
                   ha_limit_neg=-4.6,
                   ha_limit_pos=4.6,
                   zenith_blind_spot=0.0)

        tels = {
            tel_name: tel,
        }

        target = ICRSTarget(
            # RA 15:41:25.91
            ra=235.357958333,
            dec=-60.0,
        )

        window = Window(window_dict, tel['name'])
        dt_windows = Windows()
        dt_windows.append(window)

        configuration = copy.deepcopy(self.configuration)
        configuration.target = target

        req = Request(
            configurations=[configuration],
            windows=dt_windows,
            request_id='1',
            duration=10,
        )
        sem_start = datetime(2013, 3, 1, 0, 0, 0)
        sem_end = datetime(2013, 3, 31, 0, 0, 0)

        visibilities = construct_visibilities(tels, sem_start, sem_end)

        intervals_for_resource = self.make_rise_set_intervals(
            req, visibilities)
        compute_request_availability(req, intervals_for_resource, {})
        received = req_windows_to_kernel_intervals(
            req.windows.windows_for_resource)

        # Hour angle not violated independently confirmed by hand-cranking through SLALIB
        expected_tps = [
            {
                'type': 'start',
                'time': datetime(2013, 3, 22, 13, 9, 28, 988253)
            },
            {
                'type': 'end',
                'time': datetime(2013, 3, 22, 19, 16, 27, 292072)
            },
        ]

        for received_tp, expected_tp in zip(received[tel_name].toDictList(),
                                            expected_tps):
            assert_equal(received_tp['type'], expected_tp['type'])
            assert_equal(received_tp['time'], expected_tp['time'])
class TestKernelMappings(object):
    def setup(self):
        self.start = datetime(2011, 11, 1, 0, 0, 0)
        self.end = datetime(2011, 11, 3, 0, 0, 0)

        self.tels = {
            '1m0a.doma.bpl':
            dict(name='1m0a.doma.bpl',
                 tel_class='1m0',
                 latitude=34.433157,
                 longitude=-119.86308,
                 horizon=25,
                 ha_limit_neg=-12.0,
                 ha_limit_pos=12.0,
                 zenith_blind_spot=0.0)
        }

        self.target = ICRSTarget(
            # ra  = '20 41 25.91',
            # dec = '+45 16 49.22',
            ra=310.35795833333333,
            dec=45.280338888888885)

        self.prop_mot_target = ICRSTarget(
            # ra  = '20 41 25.91',
            # dec = '+45 16 49.22',
            ra=316.73026646,
            dec=38.74205644,
            proper_motion_ra=4106.90,
            proper_motion_dec=3144.68)

        self.instrument_config = dict(exposure_count=1,
                                      bin_x=2,
                                      bin_y=2,
                                      exposure_time=30,
                                      optical_elements={'filter': 'B'})

        self.guiding_config = dict(mode='ON',
                                   optional=True,
                                   optical_elements={},
                                   exposure_time=10)

        self.acquisition_config = dict(mode='OFF')

        self.constraints = {'max_airmass': None, 'min_lunar_distance': 0}

        self.configuration = Configuration(
            dict(id=5,
                 target=self.target,
                 instrument_type='1M0-SCICAM-SINISTRO',
                 type='expose',
                 instrument_configs=[self.instrument_config],
                 guiding_config=self.guiding_config,
                 acquisition_config=self.acquisition_config,
                 constraints=self.constraints))

    def make_constrained_request(self,
                                 airmass=None,
                                 start=datetime(2011, 11, 1, 6, 0, 0),
                                 end=datetime(2011, 11, 2, 6, 0, 0)):
        # A one day user supplied window
        window_dict = {'start': start, 'end': end}
        resource_name = '1m0a.doma.bpl'
        resource = self.tels[resource_name]

        window = Window(window_dict, resource['name'])
        dt_windows = Windows()
        dt_windows.append(window)

        configuration = copy.deepcopy(self.configuration)
        configuration.constraints['max_airmass'] = airmass

        req = Request(configurations=[configuration],
                      windows=dt_windows,
                      request_id=1,
                      duration=10)

        return req

    def make_request_group(self, requests, operator='single'):
        proposal = Proposal({
            'id': 'TestProposal',
            'tag': 'Test Proposal',
            'pi': '',
            'tac_priority': 10
        })
        rg = RequestGroup(operator=operator,
                          requests=requests,
                          proposal=proposal,
                          submitter='',
                          expires=datetime(2999, 1, 1),
                          rg_id=1,
                          is_staff=False,
                          name='test group id',
                          ipp_value=1.0,
                          observation_type='NORMAL')

        return rg

    def make_intersection_dict(self):
        timepoints = [
            {
                'time': datetime(2011, 11, 1, 6, 0, 0),
                'type': 'start'
            },
            {
                'time': datetime(2011, 11, 1, 7, 0, 0),
                'type': 'end'
            },
        ]
        intervals = Intervals(timepoints)

        intersection_dict = {'1m0a.doma.coj': intervals}

        return intersection_dict

    def make_dt_intervals_list(self):
        dt_intervals_list = [
            self.make_intersection_dict(),
            self.make_intersection_dict(),
        ]

        return dt_intervals_list

    def make_rise_set_intervals(self, req, visibilities):
        intervals_for_resource = {}
        for configuration in req.configurations:
            rs_target = configuration.target.in_rise_set_format()
            max_airmass = configuration.constraints['max_airmass']
            min_lunar_distance = configuration.constraints[
                'min_lunar_distance']
            for resource, visibility in visibilities.items():
                intervals = get_rise_set_timepoint_intervals(
                    rs_target, visibility, max_airmass, min_lunar_distance)
                if resource in intervals_for_resource:
                    intervals_for_resource[resource] = intervals_for_resource[
                        resource].intersect(intervals)
                else:
                    intervals_for_resource[resource] = intervals

        return intervals_for_resource

    def test_make_cache_key(self):
        max_airmass = 2.5
        min_lunar_distance = 30.0
        resource = '1m0a.doma.lsc'
        rs_target = self.make_constrained_request(
        ).configurations[0].target.in_rise_set_format()

        assert_equal(
            make_cache_key(resource, rs_target, max_airmass,
                           min_lunar_distance),
            '{}_{}_{}_{}'.format(resource, max_airmass, min_lunar_distance,
                                 repr(sorted(rs_target.items()))))

    def test_compute_request_availability_half_downtime(self):
        request = self.make_constrained_request()
        resource = '1m0a.doma.bpl'
        visibilities = construct_visibilities(self.tels, self.start, self.end)
        downtime_intervals = {
            resource: {
                'all': [
                    (datetime(2011, 11, 1, 5), datetime(2011, 11, 1, 8)),
                ]
            }
        }

        intervals_for_resource = self.make_rise_set_intervals(
            request, visibilities)
        compute_request_availability(request, intervals_for_resource, {})
        base_windows = request.windows.windows_for_resource.copy()

        compute_request_availability(request, intervals_for_resource,
                                     downtime_intervals)
        assert_equal(len(base_windows[resource]), 2)
        assert_equal(request.windows.size(), 1)
        assert_equal(
            request.windows.at(resource)[0], base_windows[resource][1])

    def test_compute_request_availability_full_downtime(self):
        request = self.make_constrained_request()
        resource = '1m0a.doma.bpl'
        visibilities = construct_visibilities(self.tels, self.start, self.end)
        downtime_intervals = {
            resource: {
                'all': [
                    (datetime(2011, 11, 1), datetime(2011, 11, 3)),
                ]
            }
        }

        intervals_for_resource = self.make_rise_set_intervals(
            request, visibilities)
        compute_request_availability(request, intervals_for_resource, {})
        base_windows = request.windows.windows_for_resource.copy()

        compute_request_availability(request, intervals_for_resource,
                                     downtime_intervals)
        assert_equal(len(base_windows[resource]), 2)
        assert_equal(request.windows.size(), 0)

    def test_compute_request_availability_half_downtime_instrument_type(self):
        request = self.make_constrained_request()
        resource = '1m0a.doma.bpl'
        instrument_type = request.configurations[0].instrument_type
        visibilities = construct_visibilities(self.tels, self.start, self.end)
        downtime_intervals = {
            resource: {
                instrument_type: [
                    (datetime(2011, 11, 1, 5), datetime(2011, 11, 1, 8)),
                ]
            }
        }

        intervals_for_resource = self.make_rise_set_intervals(
            request, visibilities)
        compute_request_availability(request, intervals_for_resource, {})
        base_windows = request.windows.windows_for_resource.copy()

        compute_request_availability(request, intervals_for_resource,
                                     downtime_intervals)
        assert_equal(len(base_windows[resource]), 2)
        assert_equal(request.windows.size(), 1)
        assert_equal(
            request.windows.at(resource)[0], base_windows[resource][1])

    def test_compute_request_availability_combined_full_downtime(self):
        request = self.make_constrained_request()
        resource = '1m0a.doma.bpl'
        instrument_type = request.configurations[0].instrument_type
        visibilities = construct_visibilities(self.tels, self.start, self.end)
        downtime_intervals = {
            resource: {
                'all': [
                    (datetime(2011, 11, 1, 5), datetime(2011, 11, 1, 8)),
                ],
                instrument_type: [
                    (datetime(2011, 11, 1, 8), datetime(2011, 11, 3)),
                ]
            }
        }

        intervals_for_resource = self.make_rise_set_intervals(
            request, visibilities)
        compute_request_availability(request, intervals_for_resource, {})
        base_windows = request.windows.windows_for_resource.copy()

        compute_request_availability(request, intervals_for_resource,
                                     downtime_intervals)
        assert_equal(len(base_windows[resource]), 2)
        assert_equal(request.windows.size(), 0)

    def test_compute_request_availability_different_instrument_downtime(self):
        request = self.make_constrained_request()
        resource = '1m0a.doma.bpl'
        visibilities = construct_visibilities(self.tels, self.start, self.end)
        downtime_intervals = {
            resource: {
                'not_my_inst': [
                    (datetime(2011, 11, 1), datetime(2011, 11, 3)),
                ]
            }
        }

        intervals_for_resource = self.make_rise_set_intervals(
            request, visibilities)
        compute_request_availability(request, intervals_for_resource, {})
        base_windows = request.windows.windows_for_resource.copy()

        compute_request_availability(request, intervals_for_resource,
                                     downtime_intervals)
        assert_equal(len(base_windows[resource]), 2)
        assert_equal(request.windows.size(), 2)

    def test_construct_compound_reservation(self):
        request = self.make_constrained_request()
        requests = [request, request]
        operator = 'and'
        request_group = self.make_request_group(requests, operator)
        sem_start = self.start

        # TODO: Replace with cleaner mock patching
        request_group.proposal.tac_priority = 1

        received = construct_compound_reservation(request_group, sem_start)

        assert_equal(len(received.reservation_list), len(requests))
        assert_equal(received.type, operator)

    def test_construct_many_compound_reservation(self):
        request = self.make_constrained_request()
        requests = [request, request]
        operator = 'many'
        request_group = self.make_request_group(requests, operator)
        sem_start = self.start

        # TODO: Replace with cleaner mock patching
        request_group.proposal.tac_priority = 1

        received = construct_many_compound_reservation(request_group, 0,
                                                       sem_start)

        assert_equal(len(received.reservation_list), 1)
        assert_equal(received.type, 'single')

    def test_filter_on_scheduling_horizon_applies_horizon_to_singles(self):
        start = datetime(2011, 11, 1, 6, 0, 0)
        end = datetime(2011, 12, 1, 6, 0, 0)
        request = self.make_constrained_request(start=start, end=end)
        operator = 'single'
        requests = [request]
        request_group = self.make_request_group(requests, operator)
        request_groups = [request_group]
        scheduling_horizon = datetime(2011, 11, 15, 6, 0, 0)
        filtered_rgs = filter_on_scheduling_horizon(request_groups,
                                                    scheduling_horizon)

        expected_window_start = start
        expected_window_end = scheduling_horizon

        assert_equal(1, len(filtered_rgs))
        output_ur = filtered_rgs[0]
        assert_equal(1, len(output_ur.requests))
        bpl_1m0a_doma_windows = output_ur.requests[0].windows.at(
            '1m0a.doma.bpl')
        assert_equal(1, len(bpl_1m0a_doma_windows))
        assert_equal(bpl_1m0a_doma_windows[0].start, expected_window_start)
        assert_equal(bpl_1m0a_doma_windows[0].end, expected_window_end)

    def test_filter_on_scheduling_horizon_applies_horizon_to_manys(self):
        start = datetime(2011, 11, 1, 6, 0, 0)
        end = datetime(2011, 12, 1, 6, 0, 0)
        request1 = self.make_constrained_request(start=start, end=end)
        request2 = self.make_constrained_request(start=start, end=end)
        operator = 'many'
        requests = [request1, request2]
        request_group = self.make_request_group(requests, operator)
        request_groups = [request_group]
        scheduling_horizon = datetime(2011, 11, 15, 6, 0, 0)
        filtered_rgs = filter_on_scheduling_horizon(request_groups,
                                                    scheduling_horizon)

        expected_window_start = start
        expected_window_end = scheduling_horizon

        assert_equal(1, len(filtered_rgs))
        output_ur = filtered_rgs[0]
        assert_equal(2, len(output_ur.requests))
        bpl_1m0a_doma_windows1 = output_ur.requests[0].windows.at(
            '1m0a.doma.bpl')
        bpl_1m0a_doma_windows2 = output_ur.requests[0].windows.at(
            '1m0a.doma.bpl')
        assert_equal(1, len(bpl_1m0a_doma_windows1))
        assert_equal(1, len(bpl_1m0a_doma_windows2))
        assert_equal(bpl_1m0a_doma_windows1[0].start, expected_window_start)
        assert_equal(bpl_1m0a_doma_windows1[0].end, expected_window_end)
        assert_equal(bpl_1m0a_doma_windows2[0].start, expected_window_start)
        assert_equal(bpl_1m0a_doma_windows2[0].end, expected_window_end)

    def test_filter_on_scheduling_horizon_no_horizon_applied_to_oneof(self):
        start = datetime(2011, 11, 1, 6, 0, 0)
        end = datetime(2011, 12, 1, 6, 0, 0)
        request1 = self.make_constrained_request(start=start, end=end)
        request2 = self.make_constrained_request(start=start, end=end)
        operator = 'oneof'
        requests = [request1, request2]
        request_group = self.make_request_group(requests, operator)
        request_groups = [request_group]
        scheduling_horizon = datetime(2011, 11, 15, 6, 0, 0)
        filtered_rgs = filter_on_scheduling_horizon(request_groups,
                                                    scheduling_horizon)

        expected_window_start = start
        expected_window_end = end

        assert_equal(1, len(filtered_rgs))
        output_ur = filtered_rgs[0]
        assert_equal(2, len(output_ur.requests))
        bpl_1m0a_doma_windows1 = output_ur.requests[0].windows.at(
            '1m0a.doma.bpl')
        bpl_1m0a_doma_windows2 = output_ur.requests[0].windows.at(
            '1m0a.doma.bpl')
        assert_equal(1, len(bpl_1m0a_doma_windows1))
        assert_equal(1, len(bpl_1m0a_doma_windows2))
        assert_equal(bpl_1m0a_doma_windows1[0].start, expected_window_start)
        assert_equal(bpl_1m0a_doma_windows1[0].end, expected_window_end)
        assert_equal(bpl_1m0a_doma_windows2[0].start, expected_window_start)
        assert_equal(bpl_1m0a_doma_windows2[0].end, expected_window_end)

    def test_filter_on_scheduling_horizon_no_horizon_applied_to_and(self):
        start = datetime(2011, 11, 1, 6, 0, 0)
        end = datetime(2011, 12, 1, 6, 0, 0)
        request1 = self.make_constrained_request(start=start, end=end)
        request2 = self.make_constrained_request(start=start, end=end)
        operator = 'and'
        requests = [request1, request2]
        request_group = self.make_request_group(requests, operator)
        request_groups = [request_group]
        scheduling_horizon = datetime(2011, 11, 15, 6, 0, 0)
        filtered_rgs = filter_on_scheduling_horizon(request_groups,
                                                    scheduling_horizon)

        expected_window_start = start
        expected_window_end = end

        assert_equal(1, len(filtered_rgs))
        output_ur = filtered_rgs[0]
        assert_equal(2, len(output_ur.requests))
        bpl_1m0a_doma_windows1 = output_ur.requests[0].windows.at(
            '1m0a.doma.bpl')
        bpl_1m0a_doma_windows2 = output_ur.requests[0].windows.at(
            '1m0a.doma.bpl')
        assert_equal(1, len(bpl_1m0a_doma_windows1))
        assert_equal(1, len(bpl_1m0a_doma_windows2))
        assert_equal(bpl_1m0a_doma_windows1[0].start, expected_window_start)
        assert_equal(bpl_1m0a_doma_windows1[0].end, expected_window_end)
        assert_equal(bpl_1m0a_doma_windows2[0].start, expected_window_start)
        assert_equal(bpl_1m0a_doma_windows2[0].end, expected_window_end)

    def test_make_target_intervals(self):
        window_dict = {'start': self.start, 'end': self.end}
        resource_name = '1m0a.doma.bpl'
        resource = self.tels[resource_name]

        window = Window(window_dict, resource['name'])
        dt_windows = Windows()
        dt_windows.append(window)

        req = Request(configurations=[self.configuration],
                      windows=dt_windows,
                      request_id='1')

        visibilities = construct_visibilities(self.tels, self.start, self.end)

        intervals_for_resource = self.make_rise_set_intervals(
            req, visibilities)
        compute_request_availability(req, intervals_for_resource, {})
        received = req_windows_to_kernel_intervals(
            req.windows.windows_for_resource)

        date_format = '%Y-%m-%d %H:%M:%S.%f'
        rise_set_dark_intervals = (datetime.strptime(
            '2011-11-01 02:02:43.257196', date_format),
                                   datetime.strptime(
                                       '2011-11-01 07:52:00.564199',
                                       date_format),
                                   datetime.strptime(
                                       '2011-11-02 02:01:50.423880',
                                       date_format),
                                   datetime.strptime(
                                       '2011-11-02 07:48:04.692316',
                                       date_format))

        # Verify we get the intervals we expect
        for resource_name, received_intervals in received.items():
            for i, received_tp in enumerate(received_intervals.toDictList()):
                assert_equal(received_tp['time'], rise_set_dark_intervals[i])

    def test_proper_motion_in_rise_set(self):
        target_dict = self.prop_mot_target.in_rise_set_format()

        # According to Rob's calculations, proper motion RA and dec should be as follows
        # See https://issues.lcogt.net/issues/8723 for more info
        converted_proper_motion_ra = 5.265450459478893
        converted_proper_motion_dec = 3.14468
        assert_almost_equals(
            target_dict['ra_proper_motion'].in_degrees_per_year(),
            converted_proper_motion_ra / 3600.0)
        assert_almost_equals(
            target_dict['dec_proper_motion'].in_degrees_per_year(),
            converted_proper_motion_dec / 3600.0)

    def test_user_interval_is_honoured(self):
        # A one day user supplied window
        window_dict = {
            'start': datetime(2011, 11, 1, 6, 0, 0),
            'end': datetime(2011, 11, 2, 6, 0, 0)
        }
        resource_name = '1m0a.doma.bpl'
        resource = self.tels[resource_name]

        window = Window(window_dict, resource['name'])
        dt_windows = Windows()
        dt_windows.append(window)

        req = Request(configurations=[self.configuration],
                      windows=dt_windows,
                      request_id='1')

        visibilities = construct_visibilities(self.tels, self.start, self.end)

        intervals_for_resource = self.make_rise_set_intervals(
            req, visibilities)
        compute_request_availability(req, intervals_for_resource, {})
        received = req_windows_to_kernel_intervals(
            req.windows.windows_for_resource)

        # The user windows constrain the available observing windows (compare to
        # previous test)
        date_format = '%Y-%m-%d %H:%M:%S.%f'
        rise_set_dark_intervals = (
            datetime.strptime('2011-11-01 06:00:00.0', date_format),
            datetime.strptime('2011-11-01 07:52:00.564199', date_format),
            datetime.strptime('2011-11-02 02:01:50.423880', date_format),
            datetime.strptime('2011-11-02 06:00:00.0', date_format),
        )

        # Verify we get the intervals we expect
        for resource_name, received_intervals in received.items():
            for i, received_tp in enumerate(received_intervals.toDictList()):
                assert_equal(received_tp['time'], rise_set_dark_intervals[i])

    def test_multiple_user_intervals_are_honoured(self):
        # A one day user supplied window
        windows = [{
            'start': datetime(2011, 11, 1, 6, 0, 0),
            'end': datetime(2011, 11, 1, 9, 0, 0)
        }, {
            'start': datetime(2011, 11, 2, 1, 0, 0),
            'end': datetime(2011, 11, 2, 4, 0, 0)
        }]

        dt_windows = Windows()
        resource_name = '1m0a.doma.bpl'
        for w in windows:
            dt_windows.append(Window(w, self.tels[resource_name]['name']))

        req = Request(configurations=[self.configuration],
                      windows=dt_windows,
                      request_id='1')

        visibilities = construct_visibilities(self.tels, self.start, self.end)

        intervals_for_resource = self.make_rise_set_intervals(
            req, visibilities)
        compute_request_availability(req, intervals_for_resource, {})
        received = req_windows_to_kernel_intervals(
            req.windows.windows_for_resource)

        # The user windows constrain the available observing windows (compare to
        # previous tests)
        date_format = '%Y-%m-%d %H:%M:%S.%f'
        rise_set_dark_intervals = (
            datetime.strptime('2011-11-01 06:00:00.0', date_format),
            datetime.strptime('2011-11-01 07:52:00.564199', date_format),
            datetime.strptime('2011-11-02 02:01:50.423880', date_format),
            datetime.strptime('2011-11-02 04:00:00.0', date_format),
        )

        # Verify we get the intervals we expect
        for resource_name, received_intervals in received.items():
            for i, received_tp in enumerate(received_intervals.toDictList()):
                assert_equal(received_tp['time'], rise_set_dark_intervals[i])

    def test_visibility_intervals_are_limited_by_hour_angle(self):

        window_dict = {
            'start': datetime(2013, 3, 22, 0, 0, 0),
            'end': datetime(2013, 3, 23, 0, 0, 0),
        }

        tel_name = '1m0a.doma.coj'
        tel = dict(name=tel_name,
                   tel_class='1m0',
                   latitude=-31.273,
                   longitude=149.070593,
                   horizon=15,
                   ha_limit_neg=-4.6,
                   ha_limit_pos=4.6,
                   zenith_blind_spot=0.0)

        tels = {
            tel_name: tel,
        }

        target = ICRSTarget(
            ra=310.35795833333333,
            dec=-60.0,
        )

        window = Window(window_dict, tel['name'])
        dt_windows = Windows()
        dt_windows.append(window)

        configuration = copy.deepcopy(self.configuration)
        configuration.target = target

        req = Request(
            configurations=[configuration],
            windows=dt_windows,
            request_id='1',
            duration=10,
        )
        sem_start = datetime(2013, 3, 1, 0, 0, 0)
        sem_end = datetime(2013, 3, 31, 0, 0, 0)

        visibilities = construct_visibilities(tels, sem_start, sem_end)

        intervals_for_resource = self.make_rise_set_intervals(
            req, visibilities)
        compute_request_availability(req, intervals_for_resource, {})
        received = req_windows_to_kernel_intervals(
            req.windows.windows_for_resource)

        # Hour angle not violated independently confirmed by hand-cranking through SLALIB
        expected_tps = [
            {
                'type': 'start',
                'time': datetime(2013, 3, 22, 18, 8, 34, 287629)
            },
            {
                'type': 'end',
                'time': datetime(2013, 3, 22, 19, 16, 27, 292072)
            },
        ]

        for received_tp, expected_tp in zip(received[tel_name].toDictList(),
                                            expected_tps):
            assert_equal(received_tp['type'], expected_tp['type'])
            assert_equal(received_tp['time'], expected_tp['time'])

    def test_visibility_intervals_at_low_horizon_are_allowed_by_hour_angle(
            self):

        window_dict = {
            'start': datetime(2013, 3, 22, 0, 0, 0),
            'end': datetime(2013, 3, 23, 0, 0, 0),
        }

        tel_name = '1m0a.doma.coj'
        tel = dict(name=tel_name,
                   tel_class='1m0',
                   latitude=-31.273,
                   longitude=149.070593,
                   horizon=15,
                   ha_limit_neg=-4.6,
                   ha_limit_pos=4.6,
                   zenith_blind_spot=0.0)

        tels = {
            tel_name: tel,
        }

        target = ICRSTarget(
            # RA 15:41:25.91
            ra=235.357958333,
            dec=-60.0,
        )

        window = Window(window_dict, tel['name'])
        dt_windows = Windows()
        dt_windows.append(window)

        configuration = copy.deepcopy(self.configuration)
        configuration.target = target

        req = Request(
            configurations=[configuration],
            windows=dt_windows,
            request_id='1',
            duration=10,
        )
        sem_start = datetime(2013, 3, 1, 0, 0, 0)
        sem_end = datetime(2013, 3, 31, 0, 0, 0)

        visibilities = construct_visibilities(tels, sem_start, sem_end)

        intervals_for_resource = self.make_rise_set_intervals(
            req, visibilities)
        compute_request_availability(req, intervals_for_resource, {})
        received = req_windows_to_kernel_intervals(
            req.windows.windows_for_resource)

        # Hour angle not violated independently confirmed by hand-cranking through SLALIB
        expected_tps = [
            {
                'type': 'start',
                'time': datetime(2013, 3, 22, 13, 9, 28, 988253)
            },
            {
                'type': 'end',
                'time': datetime(2013, 3, 22, 19, 16, 27, 292072)
            },
        ]

        for received_tp, expected_tp in zip(received[tel_name].toDictList(),
                                            expected_tps):
            assert_equal(received_tp['type'], expected_tp['type'])
            assert_equal(received_tp['time'], expected_tp['time'])

    def test_construct_global_availability(self):
        tel_name = '1m0a.doma.lsc'
        sem_start = datetime(2012, 10, 1)

        # Resource is available from 3-7
        dt0 = datetime(2013, 3, 22, 3)
        dt1 = datetime(2013, 3, 22, 7)

        dt_resource_int = Intervals([
            {
                'time': dt0,
                'type': 'start'
            },
            {
                'time': dt1,
                'type': 'end'
            },
        ])
        epoch_resource_int = normalise_dt_intervals(dt_resource_int, sem_start)
        resource_windows = {tel_name: epoch_resource_int}

        # Resource is unavailable from 4-5
        dt2 = datetime(2013, 3, 22, 4)
        dt3 = datetime(2013, 3, 22, 5)
        masked_inervals = {
            '1m0a.doma.lsc':
            Intervals([{
                'time': dt2,
                'type': 'start'
            }, {
                'time': dt3,
                'type': 'end'
            }])
        }

        # Expected available intervals after masking are
        # 3-4, 5-7
        received = construct_global_availability(masked_inervals, sem_start,
                                                 resource_windows)
        received_int = received[tel_name]
        timepoints = received_int.toDictList()
        assert_equal(len(timepoints), 4)
        r0 = normalised_epoch_to_datetime(timepoints[0]['time'],
                                          datetime_to_epoch(sem_start))
        r1 = normalised_epoch_to_datetime(timepoints[1]['time'],
                                          datetime_to_epoch(sem_start))
        # r2 = normalised_epoch_to_datetime(timepoints[2]['time'],
        #                                   datetime_to_epoch(sem_start))
        r3 = normalised_epoch_to_datetime(timepoints[3]['time'],
                                          datetime_to_epoch(sem_start))
        assert_equal(r0, dt0)
        assert_equal(r1, dt2)
        assert_equal(r3, dt1)

    def test_airmass_is_honoured_high_airmass(self):
        airmass = 3.0
        req_airmass3 = self.make_constrained_request(airmass)
        req_no_airmass = self.make_constrained_request()

        visibilities = construct_visibilities(self.tels, self.start, self.end)

        intervals_for_resource = self.make_rise_set_intervals(
            req_no_airmass, visibilities)
        compute_request_availability(req_no_airmass, intervals_for_resource,
                                     {})
        received_no_airmass = req_windows_to_kernel_intervals(
            req_no_airmass.windows.windows_for_resource)
        timepoints_no_airmass = received_no_airmass[
            '1m0a.doma.bpl'].toDictList()

        intervals_for_resource = self.make_rise_set_intervals(
            req_airmass3, visibilities)
        compute_request_availability(req_airmass3, intervals_for_resource, {})
        received_airmass3 = req_windows_to_kernel_intervals(
            req_airmass3.windows.windows_for_resource)
        timepoints_airmass3 = received_airmass3['1m0a.doma.bpl'].toDictList()

        assert_equal(timepoints_no_airmass, timepoints_airmass3)

    def test_airmass_is_honoured_low_airmass(self):
        airmass = 1.0
        req_airmass1 = self.make_constrained_request(airmass)
        req_no_airmass = self.make_constrained_request()

        visibilities = construct_visibilities(self.tels, self.start, self.end)

        intervals_for_resource = self.make_rise_set_intervals(
            req_no_airmass, visibilities)
        compute_request_availability(req_no_airmass, intervals_for_resource,
                                     {})
        received_no_airmass = req_windows_to_kernel_intervals(
            req_no_airmass.windows.windows_for_resource)

        intervals_for_resource = self.make_rise_set_intervals(
            req_airmass1, visibilities)
        compute_request_availability(req_airmass1, intervals_for_resource, {})
        received_airmass1 = req_windows_to_kernel_intervals(
            req_airmass1.windows.windows_for_resource)

        assert_not_equal(received_airmass1, received_no_airmass)
        assert_equal(len(received_airmass1), 0)
コード例 #7
0
    def setup(self):
        self.target = ICRSTarget(
            name='deneb',
            ra=310.35795833333333,
            dec=45.280338888888885,
            epoch=2000,
        )

        self.telescope = dict(name='1m0a.doma.ogg',
                              latitude=20.7069444444,
                              longitude=-156.258055556,
                              tel_class='1m0',
                              horizon=15,
                              status='online',
                              ha_limit_neg=-4.6,
                              ha_limit_pos=4.6,
                              zenith_blind_spot=0.0)
        self.telescopes = {'1m0a.doma.ogg': self.telescope}

        self.proposal = Proposal(id='LCOSchedulerTest',
                                 pi='Eric Saunders',
                                 tag='admin',
                                 tac_priority=1)

        self.instrument_config = dict(exposure_count=1,
                                      bin_x=2,
                                      bin_y=2,
                                      exposure_time=60 * 25,
                                      optical_elements={'filter': 'b'})

        self.guiding_config = dict(mode='ON',
                                   optional=True,
                                   optical_elements={},
                                   exposure_time=10)

        self.acquisition_config = dict(mode='OFF')

        self.constraints = {'max_airmass': None, 'min_lunar_distance': 0}

        self.configuration = Configuration(
            **dict(id=5,
                   target=self.target,
                   type='expose',
                   instrument_type='1M0-SCICAM-SBIG',
                   priority=1,
                   instrument_configs=[self.instrument_config],
                   acquisition_config=self.acquisition_config,
                   guiding_config=self.guiding_config,
                   constraints=self.constraints))

        self.base_time = datetime(2016, 9, 14, 6, 0)

        resource_1 = '1m0a.doma.ogg'
        self.window_1 = Window(
            {
                'start': self.base_time,
                'end': self.base_time + timedelta(hours=0, minutes=30)
            }, resource_1)
        self.windows_1 = Windows()
        self.windows_1.append(self.window_1)

        resource_2 = '1m0a.doma.ogg'
        self.window_2 = Window(
            {
                'start': self.base_time + timedelta(hours=0, minutes=30),
                'end': self.base_time + timedelta(hours=1, minutes=0)
            }, resource_2)
        self.windows_2 = Windows()
        self.windows_2.append(self.window_2)
        self.resource_3 = '1m0a.doma.ogg'
        self.window_3 = Window(
            {
                'start': self.base_time + timedelta(hours=1, minutes=0),
                'end': self.base_time + timedelta(hours=1, minutes=30)
            }, self.resource_3)
        self.windows_3 = Windows()
        self.windows_3.append(self.window_3)

        self.request_1 = Request(configurations=[self.configuration],
                                 windows=self.windows_1,
                                 request_id=1,
                                 duration=1750)

        self.request_2 = Request(configurations=[self.configuration],
                                 windows=self.windows_2,
                                 request_id=2,
                                 duration=1750)

        self.request_3 = Request(configurations=[self.configuration],
                                 windows=self.windows_2,
                                 request_id=3,
                                 duration=1750)

        self.request_4 = Request(configurations=[self.configuration],
                                 windows=self.windows_3,
                                 request_id=4,
                                 duration=1750)

        self.request_5 = Request(configurations=[self.configuration],
                                 windows=self.windows_3,
                                 request_id=5,
                                 duration=1750)

        self.and_request_group_1 = RequestGroup(
            operator='and',
            requests=[self.request_1, self.request_2],
            proposal=self.proposal,
            expires=datetime(2050, 1, 1),
            rg_id=1,
            is_staff=False,
            observation_type='NORMAL',
            ipp_value=1.0,
            name='ur 1',
            submitter='')
        self.and_request_group_2 = RequestGroup(
            operator='and',
            requests=[self.request_3, self.request_4],
            proposal=self.proposal,
            expires=datetime(2050, 1, 1),
            rg_id=2,
            is_staff=False,
            observation_type='NORMAL',
            ipp_value=1.0,
            name='ur 2',
            submitter='')
        self.many_request_group_1 = RequestGroup(
            operator='many',
            requests=[self.request_1, self.request_2],
            proposal=self.proposal,
            expires=datetime(2050, 1, 1),
            rg_id=3,
            is_staff=False,
            observation_type='NORMAL',
            ipp_value=1.5,
            name='ur 3',
            submitter='')
        self.many_request_group_2 = RequestGroup(
            operator='many',
            requests=[self.request_3, self.request_4],
            proposal=self.proposal,
            expires=datetime(2050, 1, 1),
            rg_id=4,
            is_staff=False,
            observation_type='NORMAL',
            ipp_value=1.5,
            name='ur 4',
            submitter='')
        self.rr_request_group_1 = RequestGroup(
            operator='many',
            requests=[self.request_5],
            proposal=self.proposal,
            expires=datetime(2050, 1, 1),
            rg_id=5,
            is_staff=False,
            observation_type='RAPID_RESPONSE',
            ipp_value=1.5,
            name='ur 5',
            submitter='')
        self.rr_request_group_2 = RequestGroup(
            operator='many',
            requests=[self.request_1, self.request_3],
            proposal=self.proposal,
            expires=datetime(2050, 1, 1),
            rg_id=6,
            is_staff=False,
            observation_type='RAPID_RESPONSE',
            ipp_value=1.5,
            name='ur 6',
            submitter='')