def main():
"""Save figures showing the pre-existing Urban Observatory network of sensors and
comparisons with optimised networks using our approach.
"""
print("Saving Urban Observatory figures...")
set_fig_style()
config = get_config()
lad20cd = lad20nm_to_lad20cd(config["la"])
networks_path = get_single_obj_filepath(config)
networks = load_pickle(networks_path)
uo_sensors = load_uo_sensors(config)
figs_dir = get_figures_save_dir(config)
population_groups, all_groups = get_objectives(config)
oa_weights = get_weights(lad20cd, population_groups)
theta, _ = get_default_optimisation_params(config)
uo_sensor_dict = get_uo_sensor_dict(lad20cd, uo_sensors=uo_sensors)
uo_coverage = get_uo_coverage_oa(lad20cd, uo_sensor_dict, theta,
all_groups, oa_weights)
fig_uo_sensor_locations(lad20cd, uo_sensors, figs_dir)
fig_uo_coverage_grid(lad20cd, uo_sensors, theta, figs_dir)
fig_uo_coverage_grid_diff(lad20cd, uo_sensors, theta, all_groups, networks,
figs_dir)
fig_uo_coverage_oa(uo_coverage, theta, all_groups, figs_dir)
fig_uo_coverage_oa_diff(lad20cd, uo_coverage, theta, all_groups, networks,
figs_dir)
def main():
"""
Save figures showing the results of running the mulit-objective optimisation (NSGA2)
with two objectives.
"""
print("Saving two-objective network figures...")
set_fig_style()
config = get_config()
figs_dir = get_figures_save_dir(config)
networks_path = get_two_objs_filepath(config)
networks = load_pickle(networks_path)
theta, n_sensors = get_default_optimisation_params(config)
n = networks[f"theta{theta}"][f"{n_sensors}sensors"]
scores, solutions = extract_all(n)
scores = -scores
population_groups, all_groups = get_objectives(config)
plot_objs = config["optimisation"]["two_objectives"]["objectives"]
lad20cd = lad20nm_to_lad20cd(config["la"])
inputs = get_multi_obj_inputs(lad20cd, population_groups)
fig_obj1_vs_obj2(plot_objs, scores, all_groups, theta, n_sensors, figs_dir)
fig_two_objs_spectrum(
lad20cd,
plot_objs,
scores,
solutions,
inputs,
all_groups,
theta,
n_sensors,
figs_dir,
)
def main():
"""Save figures showing the results of running the multi-objective optimisation
(with the NSGA2 algorithm)
"""
print("Saving multi-objective network figures...")
set_fig_style()
config = get_config()
lad20cd = lad20nm_to_lad20cd(config["la"])
networks_path = get_multi_objs_filepath(config)
networks = load_pickle(networks_path)
figs_dir = get_figures_save_dir(config)
theta, n_sensors = get_default_optimisation_params(config)
n = networks[f"theta{theta}"][f"{n_sensors}sensors"]
scores, solutions = extract_all(n)
scores = -scores
population_groups, all_groups = get_objectives(config)
objs = [g["title"] for g in all_groups.values()]
threshold = config["figures"]["multi_objectives"]["all_coverage_threshold"]
fig_all_above_threshold(scores, objs, threshold, theta, n_sensors,
figs_dir)
threshold = config["figures"]["multi_objectives"][
"work_coverage_threshold"]
work_name = config["objectives"]["workplace"]["title"]
fig_work_above_threshold(scores, objs, threshold, theta, n_sensors,
work_name, figs_dir)
child_name = config["objectives"]["population_groups"]["pop_children"][
"title"]
inputs = get_multi_obj_inputs(lad20cd, population_groups)
fig_max_child_work_above_threshold(
lad20cd,
scores,
objs,
threshold,
theta,
n_sensors,
solutions,
inputs,
work_name,
child_name,
figs_dir,
)
uo_sensors = load_uo_sensors(config)
uo_coverage = get_uo_coverage_oa(lad20cd, None, theta, all_groups,
inputs["oa_weight"])
n_uo_oa = uo_sensors["oa11cd"].nunique()
fig_coverage_above_uo(uo_coverage, scores, objs, theta, n_uo_oa,
all_groups, figs_dir)
fig_max_min_coverage(lad20cd, scores, objs, theta, n_sensors, solutions,
inputs, figs_dir)
def main():
"""Save figures showing the distribution of differrent sub-populations around the
local authority.
"""
print("Saving demographic figures...")
set_fig_style()
config = get_config()
lad20cd = lad20nm_to_lad20cd(config["la"])
figs_dir = get_figures_save_dir(config)
theta, _ = get_default_optimisation_params(config)
population_groups, all_groups = get_objectives(config)
oa_weights = get_weights(lad20cd, population_groups)
fig_importance(lad20cd, all_groups, oa_weights, theta, figs_dir)
oa = calc_oa_density(lad20cd, all_groups, population_groups)
fig_density(lad20cd, oa, all_groups, figs_dir)
def main():
"""
Save figures showing the results of single-objective networks generated with a
greedy algorithm.
"""
print("Saving single objective network figures...")
set_fig_style()
config = get_config()
networks_path = get_single_obj_filepath(config)
results = load_pickle(networks_path)
figs_dir = get_figures_save_dir(config)
thetas, n_sensors = get_all_optimisation_params(config)
_, all_groups = get_objectives(config)
fig_single_obj(thetas, n_sensors, results, all_groups, figs_dir)
theta, n_sensors = get_default_optimisation_params(config)
fig_coverage_vs_sensors(results, theta, n_sensors, all_groups, figs_dir)
def main():
"""
Creates a formatted report including all the generated figures for a local auhtority
and decriptions of what each figure shows (using the template reoprt_template.md).
Both a Markdown (report.md) and HTML (report.html) version of the report are saved.
"""
print("Generating formatted reports...")
with open("report_template.md") as f:
template = Template(f.read())
config = get_config()
fig_dir = get_figures_save_dir(config)
report_dir = fig_dir.parent
rel_fig_dir = fig_dir.stem
la_name = config["la"]
la_code = lad20nm_to_lad20cd(la_name)
fig_density = Path(rel_fig_dir, "demographics_density.png")
fig_importance = Path(rel_fig_dir, "demographics_importance.png")
fig_coverage_vs_nsensors = Path(rel_fig_dir, "coverage_vs_nsensors.png")
_, all_groups = get_objectives(config)
total_pop_name = all_groups["pop_total"]["title"]
fig_totalpop = find_fig_path("pop_total_theta*_nsensors*.png", fig_dir)
children_name = all_groups["pop_children"]["title"]
fig_children = find_fig_path("pop_children_theta*_nsensors*.png", fig_dir)
older_name = all_groups["pop_elderly"]["title"]
fig_older = find_fig_path("pop_elderly_theta*_nsensors*.png", fig_dir)
work_name = all_groups["workplace"]["title"]
fig_workers = find_fig_path("workplace_theta*_nsensors*.png", fig_dir)
fig_urb_obs_sensors = find_fig_path("urb_obs_sensors_nsensors_*.png", fig_dir)
fig_urb_obs_coverage_grid = find_fig_path(
"urb_obs_coverage_grid_theta_*_nsensors_*.png", fig_dir
)
fig_urb_obs_coverage_diff_grid = find_fig_path(
"urb_obs_coverage_difference_grid_theta_*_nsensors_*.png", fig_dir
)
fig_urb_obs_coverage_oa = find_fig_path(
"urb_obs_coverage_oa_theta_*_nsensors_*.png", fig_dir
)
fig_urb_obs_coverage_diff_oa = find_fig_path(
"urb_obs_coverage_difference_grid_theta_*_nsensors_*.png", fig_dir
)
all_threshold = config["figures"]["multi_objectives"]["all_coverage_threshold"]
fig_all_above_threshold = find_fig_path(
f"multiobj_theta*_*sensors_above{round(all_threshold * 100)}cov.png",
fig_dir,
)
work_threshold = config["figures"]["multi_objectives"]["work_coverage_threshold"]
fig_work_above_threshold = find_fig_path(
f"multiobj_theta*_*sensors_workabove{round(work_threshold * 100)}cov.png",
fig_dir,
)
fig_max_child_work_above_threshold = find_fig_path(
"multiobj_wplace*_child*_theta*_*sensors.png", fig_dir
)
fig_coverage_above_uo = find_fig_path(
"multiobj_theta*_*sensors_above_urbobs.png", fig_dir
)
fig_max_min_coverage = find_fig_path(
"multiobj_compromise_theta*_*sensors_cov*.png", fig_dir
)
obj_1 = config["optimisation"]["two_objectives"]["objectives"][0]
obj_2 = config["optimisation"]["two_objectives"]["objectives"][1]
obj_1 = all_groups[obj_1]["title"]
obj_2 = all_groups[obj_2]["title"]
fig_obj1_vs_obj2 = find_fig_path("2obj_theta*_*sensors.png", fig_dir)
fig_spectrum = find_fig_path("2obj_spectrum_theta*_*sensors.png", fig_dir)
fig_width = config["report"]["fig_width"]
filled_template = template.render(
la_name=la_name,
la_code=la_code,
fig_density=fig_density,
fig_importance=fig_importance,
fig_coverage_vs_nsensors=fig_coverage_vs_nsensors,
total_pop_name=total_pop_name,
fig_totalpop=fig_totalpop,
children_name=children_name,
fig_children=fig_children,
older_name=older_name,
fig_older=fig_older,
work_name=work_name,
fig_workers=fig_workers,
fig_urb_obs_sensors=fig_urb_obs_sensors,
fig_urb_obs_coverage_grid=fig_urb_obs_coverage_grid,
fig_urb_obs_coverage_diff_grid=fig_urb_obs_coverage_diff_grid,
fig_urb_obs_coverage_oa=fig_urb_obs_coverage_oa,
fig_urb_obs_coverage_diff_oa=fig_urb_obs_coverage_diff_oa,
all_threshold=all_threshold,
fig_all_above_threshold=fig_all_above_threshold,
work_threshold=work_threshold,
fig_work_above_threshold=fig_work_above_threshold,
fig_max_child_work_above_threshold=fig_max_child_work_above_threshold,
fig_coverage_above_uo=fig_coverage_above_uo,
fig_max_min_coverage=fig_max_min_coverage,
obj_1=obj_1,
obj_2=obj_2,
fig_obj1_vs_obj2=fig_obj1_vs_obj2,
fig_spectrum=fig_spectrum,
fig_width=fig_width,
)
with open(Path(report_dir, "report.md"), "w") as f:
f.write(filled_template)
html = markdown(filled_template)
with open(Path(report_dir, "report.html"), "w") as f:
f.write(html)
print("Reports saved to", report_dir)