if (not (len(project.students) == team_size)):
project.reset()
matched_projects = [
project for project in feasible_projects
if len(project.students) >= team_size
]
def can_make_team_with_waiting(u_students):
overall_number = (len(u_students) / team_size) > 0
return overall_number
while (len(unmatched_students) > 0):
if (can_make_team_with_waiting(unmatched_students)):
# Pick a random project that does not have any students on it.
project = util.random_project(feasible_projects, matched_projects,
False)
for i in range(team_size):
st = util.random_student_lst(unmatched_students, [], False)
unmatched_students.remove(st)
project.add_student(st, False)
matched_projects.append(project)
else:
#pass
feasible_projects = filter(
lambda project: len(project.students) == team_size,
feasible_projects)
available_projects = feasible_projects[:]
for student in unmatched_students:
project = util.random_project(available_projects, [], True)
project.add_student(student, True)
available_projects.remove(project)
def _test_new_project(browser):
browser_download_location_path = get_browser_download_location_path(
browser)
projects_page = begin(browser)
eq(projects_page.welcome_text, 'Welcome to OpenMDAO %s' % __version__)
# Create a project.
projects_page, project_dict = random_project(projects_page.new_project(),
verify=True,
load_workspace=False)
# Go back to projects page to see if it is on the list.
assert projects_page.contains(project_dict['name'])
# Make sure all the project meta data was saved correctly.
edit_dialog = projects_page.edit_project(project_dict['name'])
eq(str(edit_dialog.project_name).strip(), project_dict['name'])
eq(str(edit_dialog.description).strip(), project_dict['description'])
eq(str(edit_dialog.version).strip(), project_dict['version']) # maxlength
# Edit the project meta data
project_dict['description'] = "pony express"
project_dict['version'] = "23432"
projects_page = edit_project(edit_dialog, project_dict['name'],
project_dict['description'],
project_dict['version'])
# Make sure all the new project meta data was saved correctly.
edit_dialog = projects_page.edit_project(project_dict['name'])
eq(str(edit_dialog.project_name).strip(), project_dict['name'])
eq(str(edit_dialog.description).strip(), project_dict['description'])
eq(str(edit_dialog.version).strip(),
project_dict['version'][:5]) # maxlength
edit_dialog.cancel()
# Export the project
projects_page.export_project(project_dict['name'])
project_pattern = project_dict['name'].replace(' ', '_') + '-*.proj'
project_pattern = os.path.join(browser_download_location_path,
project_pattern)
for i in range(10): # Give the download time to complete.
time.sleep(1)
project_path = glob.glob(project_pattern)
if project_path:
break
else:
assert False, 'Download of %r timed-out' % project_pattern
assert len(project_path) == 1
project_path = project_path[0]
# Delete the project in preparation for reimporting
projects_page.delete_project(project_dict['name'])
# Make sure the project was deleted
assert not projects_page.contains(project_dict['name'], False)
# Import the project and give it a new name
projects_page, project_dict = import_project(
projects_page.import_project(),
project_path,
verify=True,
load_workspace=False)
# Go back to projects page to see if it is on the list.
assert projects_page.contains(project_dict['name'])
# Delete the project that was just imported
projects_page.delete_project(project_dict['name'])
# remove the downloaded file
os.remove(project_path)
def _test_last_saved_metadata(browser):
def last_saved(target):
def wrapper(projects_page, project_name, timestamp, *args, **kargs):
workspace_page = projects_page.open_project(project_name)
result = target(workspace_page)
projects_page = workspace_page.close_workspace()
if result is False:
last_saved = timestamp
else:
metadata = projects_page.get_project_metadata(project_name)
last_saved = date_to_datetime(metadata['last_saved'])
assert (last_saved > timestamp)
return projects_page, project_name, last_saved
return wrapper
def date_to_datetime(date):
date_regex = re.compile("(\d+)-(\d+)-(\d+)")
time_regex = re.compile("(\d+):(\d+):(\d+)")
match_object = date_regex.search(date)
year = int(match_object.group(1))
month = int(match_object.group(2))
day = int(match_object.group(3))
match_object = time_regex.search(date)
hours = int(match_object.group(1))
minutes = int(match_object.group(2))
seconds = int(match_object.group(3))
return datetime.datetime(year, month, day, hours, minutes, seconds)
@last_saved
def add_file(workspace_page):
file_path = pkg_resources.resource_filename(
'openmdao.gui.test.functional', 'files/simple_paraboloid.py')
workspace_page.add_file(file_path)
@last_saved
def new_file(workspace_page):
workspace_page.new_file('test_file.py')
@last_saved
def rename_file(workspace_page):
workspace_page.get_files()
workspace_page.rename_file('test_file.py', 'best_file.py')
@last_saved
def edit_file(workspace_page):
if broken_chrome():
print "Skipping testing metadata after editing file due to broken chrome driver."
return False
workspace_window = browser.current_window_handle
editor_page = workspace_page.open_editor()
editor_page.edit_file('test_file.py', dclick=False)
editor_page.add_text_to_file('#just a comment\n')
editor_page.save_document(check=False)
browser.switch_to_window(workspace_window)
port = workspace_page.port
workspace_page = WorkspacePage.verify(browser, port)
@last_saved
def delete_file(workspace_page):
workspace_page.delete_file('best_file.py')
@last_saved
def add_object(workspace_page):
workspace_page.add_library_item_to_dataflow(
"openmdao.main.assembly.Assembly", 'top')
@last_saved
def replace_object(workspace_page):
workspace_page.replace_driver("top", 'SLSQPdriver')
@last_saved
def commit_project(workspace_page):
top = workspace_page.get_dataflow_figure('top')
top.remove()
workspace_page.commit_project()
@last_saved
def revert_project(workspace_page):
workspace_page.add_library_item_to_dataflow(
"openmdao.main.assembly.Assembly", 'top')
workspace_page = workspace_page.revert_project()
projects_page = begin(browser)
projects_page, project_dict = random_project(projects_page.new_project(),
verify=True,
load_workspace=False)
project_name = project_dict['name']
metadata = projects_page.get_project_metadata(project_name)
created_time = date_to_datetime(metadata['created'])
#Testing metadata for file operations
projects_page, project_name, add_file_time = add_file(
projects_page, project_name, created_time)
projects_page, project_name, new_file_time = new_file(
projects_page, project_name, add_file_time)
projects_page, project_name, edit_file_time = edit_file(
projects_page, project_name, new_file_time)
projects_page, project_name, rename_file_time = rename_file(
projects_page, project_name, edit_file_time)
projects_page, project_name, delete_file_time = delete_file(
projects_page, project_name, rename_file_time)
#Testing metadata for project operations
projects_page, project_name, add_object_time = add_object(
projects_page, project_name, delete_file_time)
projects_page, project_name, replace_object_time = replace_object(
projects_page, project_name, add_object_time)
projects_page, project_name, commit_project_time = commit_project(
projects_page, project_name, replace_object_time)
projects_page, project_name, revert_project_time = revert_project(
projects_page, project_name, commit_project_time)
projects_page.delete_project(project_name)
def move_co(state, verbose=False, super_verbose=False):
"""
A move for conversations in the studio. There are exactly classes.number_project_rankings
groups, so it does not make any sense to allow projects to change identity. In its place,
this move type will swap a student that is matched with a student that is unmatched.
"""
student_exchange_probability = 0.01
projects = state[0]
inv_cov_mat_tup = state[1]
feasibles = state[2]
students = state[3]
if random.random() < student_exchange_probability:
project_to_choose_from = util.random_project(projects, [], True)
student_to_swap = util.random_student(project_to_choose_from)
matched_students = []
for p in projects:
matched_students.extend(p.students)
other = util.random_student_lst(students, matched_students, False)
if other == None:
pass
else:
project_to_choose_from.students.remove(student_to_swap)
project_to_choose_from.students.append(other)
else:
project_one = util.random_project(projects, [], True)
project_two = util.random_project(projects, [], True)
# Guarantee that the projects are not the same.
# Continue to swap project two until it is diff from project one.
while project_one.ID == project_two.ID:
project_two = util.random_project(projects, [], True)
if super_verbose:
print "Project one and project two are the same."
if super_verbose:
print "Found two different projects."
print "First team students are " + str([s.ID for s in project_one.students])
print "Second team students are " + str([s.ID for s in project_two.students])
print "CLEAR: made it to pick_team"
# Team to pick first students from
pick_team = util.random_two_choice()
if pick_team == 0:
first_team = project_one
second_team = project_two
else:
first_team = project_two
second_team = project_one
# Pick a student from the first team, and this student will be swapped.
student_one = util.random_student(first_team)
student_two = util.random_student(second_team)
# NOTE: this is problematic if teams aren't full.
# 38
# Guarantee that the students are of the same type.
# while (not (student_one.degree_pursuing == student_two.degree_pursuing)):
# student_two = util.random_student(second_team)
# Remove the students from their respective teams
first_team.students.remove(student_one)
if not (student_two in second_team.students):
if super_verbose:
print "Second team students is " + str([s.ID for s in second_team.students])
error = "Student two ("
error += str(student_two.ID)
error += ") is not in second_team.students ("
error += str(second_team.ID)
error += ") "
raise CompError(error)
second_team.students.remove(student_two)
first_team.students.append(student_two)
second_team.students.append(student_one)
if verbose:
print "AFTER MOVE:"
for p in projects:
print str(p.ID) + ": " + str([s.ID for s in p.students])
state_after_change = (projects, inv_cov_mat_tup, feasibles)
# print energy(state_after_change)
return projects
def move(state, verbose=False, super_verbose=False):
"""
Makes a random change to a state.
Picks two random teams, picks two random members, and performs
a swap of these members across the teams.
With some small probability, change a project to a completely different project instead.
NOTE: there should be no teams of size 0 before calling the function.
"""
project_exchange_probability = 0.01
projects = state[0]
inv_cov_mat_tup = state[1]
feasibles = state[2]
if random.random() < project_exchange_probability:
project_to_swap = util.random_project(projects, [], True)
feasible_IDs = [p.ID for p in feasibles]
reasonable_project_IDs = list(set().union(*[set(s.project_rankings) for s in project_to_swap.students]))
reasonable_projects = filter(lambda p: p.ID in reasonable_project_IDs, feasibles)
def popularity(p):
return len(filter(lambda s: s.get_ranking(p.ID) < 100, project_to_swap.students))
reasonable_projects.sort(key=popularity, reverse=True)
most_likely_popular = reasonable_projects[: max(10, 2 * len(projects))]
# other = util.random_project(most_likely_popular, projects, False)
other = util.random_project(most_likely_popular, [], True)
while project_to_swap.ID == other.ID:
other = util.random_project(most_likely_popular, [], True)
if other == None:
pass
else:
tmp = project_to_swap.ID
projects.remove(project_to_swap)
projects.append(other)
util.safe_project_swap(project_to_swap, other)
# print "swapping " + str(tmp) + " for " + str(other.ID)
# print "Project IDs in swap move is " + str([p.ID for p in projects])
else:
project_one = util.random_project(projects, [], True)
project_two = util.random_project(projects, [], True)
# Guarantee that the projects are not the same.
# Continue to swap project two until it is diff from project one.
while project_one.ID == project_two.ID:
project_two = util.random_project(projects, [], True)
if super_verbose:
print "Project one and project two are the same."
if super_verbose:
print "Found two different projects."
print "First team students are " + str([s.ID for s in project_one.students])
print "Second team students are " + str([s.ID for s in project_two.students])
print "CLEAR: made it to pick_team"
# Team to pick first students from
pick_team = util.random_two_choice()
if pick_team == 0:
first_team = project_one
second_team = project_two
else:
first_team = project_two
second_team = project_one
# Pick a student from the first team, and this student will be swapped.
student_one = util.random_student(first_team)
student_two = util.random_student(second_team)
# NOTE: this is problematic if teams aren't full.
# 38
# Guarantee that the students are of the same type.
# while (not (student_one.degree_pursuing == student_two.degree_pursuing)):
# student_two = util.random_student(second_team)
# Remove the students from their respective teams
first_team.students.remove(student_one)
if not (student_two in second_team.students):
if super_verbose:
print "Second team students is " + str([s.ID for s in second_team.students])
error = "Student two ("
error += str(student_two.ID)
error += ") is not in second_team.students ("
error += str(second_team.ID)
error += ") "
raise CompError(error)
second_team.students.remove(student_two)
first_team.students.append(student_two)
second_team.students.append(student_one)
if verbose:
print "AFTER MOVE:"
for p in projects:
print str(p.ID) + ": " + str([s.ID for s in p.students])
# state_after_change = (projects, inv_cov_mat_tup, feasibles)
# print energy(state_after_change)
return projects
def move(state, verbose=False, super_verbose=False):
'''
Makes a random change to a state.
Picks two random teams, picks two random members, and performs
a swap of these members across the teams.
With some small probability, change a project to a completely different project instead.
NOTE: there should be no teams of size 0 before calling the function.
'''
project_exchange_probability = 0.01
projects = state[0]
inv_cov_mat_tup = state[1]
feasibles = state[2]
if random.random() < project_exchange_probability:
project_to_swap = util.random_project(projects, [], True)
feasible_IDs = [p.ID for p in feasibles]
reasonable_project_IDs = list(set().union(
*[set(s.project_rankings) for s in project_to_swap.students]))
reasonable_projects = filter(lambda p: p.ID in reasonable_project_IDs,
feasibles)
def popularity(p):
return len(
filter(lambda s: s.get_ranking(p.ID) < 100,
project_to_swap.students))
reasonable_projects.sort(key=popularity, reverse=True)
most_likely_popular = reasonable_projects[:max(10, 2 * len(projects))]
#other = util.random_project(most_likely_popular, projects, False)
other = util.random_project(most_likely_popular, [], True)
while (project_to_swap.ID == other.ID):
other = util.random_project(most_likely_popular, [], True)
if other == None:
pass
else:
tmp = project_to_swap.ID
projects.remove(project_to_swap)
projects.append(other)
util.safe_project_swap(project_to_swap, other)
# print "swapping " + str(tmp) + " for " + str(other.ID)
#print "Project IDs in swap move is " + str([p.ID for p in projects])
else:
project_one = util.random_project(projects, [], True)
project_two = util.random_project(projects, [], True)
# Guarantee that the projects are not the same.
# Continue to swap project two until it is diff from project one.
while (project_one.ID == project_two.ID):
project_two = util.random_project(projects, [], True)
if (super_verbose):
print "Project one and project two are the same."
if (super_verbose):
print "Found two different projects."
print "First team students are " + str(
[s.ID for s in project_one.students])
print "Second team students are " + str(
[s.ID for s in project_two.students])
print "CLEAR: made it to pick_team"
# Team to pick first students from
pick_team = util.random_two_choice()
if (pick_team == 0):
first_team = project_one
second_team = project_two
else:
first_team = project_two
second_team = project_one
# Pick a student from the first team, and this student will be swapped.
student_one = util.random_student(first_team)
student_two = util.random_student(second_team)
# NOTE: this is problematic if teams aren't full.
# 38
# Guarantee that the students are of the same type.
# while (not (student_one.degree_pursuing == student_two.degree_pursuing)):
# student_two = util.random_student(second_team)
# Remove the students from their respective teams
first_team.students.remove(student_one)
if (not (student_two in second_team.students)):
if (super_verbose):
print "Second team students is " + str(
[s.ID for s in second_team.students])
error = "Student two ("
error += str(student_two.ID)
error += ") is not in second_team.students ("
error += str(second_team.ID)
error += ") "
raise CompError(error)
second_team.students.remove(student_two)
first_team.students.append(student_two)
second_team.students.append(student_one)
if (verbose):
print "AFTER MOVE:"
for p in projects:
print str(p.ID) + ": " + str([s.ID for s in p.students])
#state_after_change = (projects, inv_cov_mat_tup, feasibles)
#print energy(state_after_change)
return projects
# If there are any teams that are not full, remove all students from them.
for project in feasible_projects:
if (not(len(project.students) == team_size)):
project.students = []
matched_projects = [project for project in feasible_projects if len(project.students) >= team_size]
def can_make_team_with_waiting(u_students):
overall_number = (len(u_students)/ team_size) > 0
return overall_number
while (len(unmatched_students) > 0):
if (can_make_team_with_waiting(unmatched_students)):
# Pick a random project that does not have any students on it.
project = util.random_project(feasible_projects, matched_projects, False)
for i in range(team_size):
st = util.random_student_lst(unmatched_students, [], False)
unmatched_students.remove(st)
project.students.append(st)
matched_projects.append(project)
else:
#pass
feasible_projects = filter(lambda project: len(project.students) == team_size, feasible_projects)
available_projects = feasible_projects[:]
for student in unmatched_students:
project = util.random_project(available_projects, [], True)
project.add_student(student, True)
available_projects.remove(project)
unmatched_students = []
def move_co(state, verbose=False, super_verbose=False):
'''
A move for conversations in the studio. There are exactly classes.number_project_rankings
groups, so it does not make any sense to allow projects to change identity. In its place,
this move type will swap a student that is matched with a student that is unmatched.
'''
student_exchange_probability = 0.01
projects = state[0]
inv_cov_mat_tup = state[1]
feasibles = state[2]
students = state[3]
if random.random() < student_exchange_probability:
project_to_choose_from = util.random_project(projects, [], True)
student_to_swap = util.random_student(project_to_choose_from)
matched_students = []
for p in projects:
matched_students.extend(p.students)
other = util.random_student_lst(students, matched_students, False)
if other == None:
pass
else:
project_to_choose_from.students.remove(student_to_swap)
project_to_choose_from.students.append(other)
else:
project_one = util.random_project(projects, [], True)
project_two = util.random_project(projects, [], True)
# Guarantee that the projects are not the same.
# Continue to swap project two until it is diff from project one.
while (project_one.ID == project_two.ID):
project_two = util.random_project(projects, [], True)
if (super_verbose):
print "Project one and project two are the same."
if (super_verbose):
print "Found two different projects."
print "First team students are " + str(
[s.ID for s in project_one.students])
print "Second team students are " + str(
[s.ID for s in project_two.students])
print "CLEAR: made it to pick_team"
# Team to pick first students from
pick_team = util.random_two_choice()
if (pick_team == 0):
first_team = project_one
second_team = project_two
else:
first_team = project_two
second_team = project_one
# Pick a student from the first team, and this student will be swapped.
student_one = util.random_student(first_team)
student_two = util.random_student(second_team)
# NOTE: this is problematic if teams aren't full.
# 38
# Guarantee that the students are of the same type.
# while (not (student_one.degree_pursuing == student_two.degree_pursuing)):
# student_two = util.random_student(second_team)
# Remove the students from their respective teams
first_team.students.remove(student_one)
if (not (student_two in second_team.students)):
if (super_verbose):
print "Second team students is " + str(
[s.ID for s in second_team.students])
error = "Student two ("
error += str(student_two.ID)
error += ") is not in second_team.students ("
error += str(second_team.ID)
error += ") "
raise CompError(error)
second_team.students.remove(student_two)
first_team.students.append(student_two)
second_team.students.append(student_one)
if (verbose):
print "AFTER MOVE:"
for p in projects:
print str(p.ID) + ": " + str([s.ID for s in p.students])
state_after_change = (projects, inv_cov_mat_tup, feasibles)
#print energy(state_after_change)
return projects
def _test_last_saved_metadata(browser):
def last_saved(target):
def wrapper(projects_page, project_name, timestamp, *args, **kargs):
workspace_page = projects_page.open_project(project_name)
result = target(workspace_page)
projects_page = workspace_page.close_workspace()
if result is False:
last_saved = timestamp
else:
metadata = projects_page.get_project_metadata(project_name)
last_saved = date_to_datetime(metadata['last_saved'])
assert(last_saved > timestamp)
return projects_page, project_name, last_saved
return wrapper
def date_to_datetime(date):
date_regex = re.compile("(\d+)-(\d+)-(\d+)")
time_regex = re.compile("(\d+):(\d+):(\d+)")
match_object = date_regex.search(date)
year = int(match_object.group(1))
month = int(match_object.group(2))
day = int(match_object.group(3))
match_object = time_regex.search(date)
hours = int(match_object.group(1))
minutes = int(match_object.group(2))
seconds = int(match_object.group(3))
return datetime.datetime(year, month, day, hours, minutes, seconds)
@last_saved
def add_file(workspace_page):
file_path = pkg_resources.resource_filename('openmdao.gui.test.functional', 'files/simple_paraboloid.py')
workspace_page.add_file(file_path)
@last_saved
def new_file(workspace_page):
workspace_page.new_file('test_file.py')
@last_saved
def rename_file(workspace_page):
workspace_page.get_files()
workspace_page.rename_file('test_file.py', 'best_file.py')
@last_saved
def edit_file(workspace_page):
if broken_chrome():
print "Skipping testing metadata after editing file due to broken chrome driver."
return False
workspace_window = browser.current_window_handle
editor_page = workspace_page.open_editor()
editor_page.edit_file('test_file.py', dclick=False)
editor_page.add_text_to_file('#just a comment\n')
editor_page.save_document(check=False)
browser.switch_to_window(workspace_window)
port = workspace_page.port
workspace_page = WorkspacePage.verify(browser, port)
@last_saved
def delete_file(workspace_page):
workspace_page.delete_file('best_file.py')
@last_saved
def add_object(workspace_page):
workspace_page.add_library_item_to_dataflow("openmdao.main.assembly.Assembly", 'top')
@last_saved
def replace_object(workspace_page):
workspace_page.replace_driver("top", 'SLSQPdriver')
@last_saved
def commit_project(workspace_page):
top = workspace_page.get_dataflow_figure('top')
top.remove()
workspace_page.commit_project()
@last_saved
def revert_project(workspace_page):
workspace_page.add_library_item_to_dataflow("openmdao.main.assembly.Assembly", 'top')
workspace_page = workspace_page.revert_project()
projects_page = begin(browser)
projects_page, project_dict = random_project(projects_page.new_project(),
verify=True, load_workspace=False)
project_name = project_dict['name']
metadata = projects_page.get_project_metadata(project_name)
created_time = date_to_datetime(metadata['created'])
#Testing metadata for file operations
projects_page, project_name, add_file_time = add_file(projects_page, project_name, created_time)
projects_page, project_name, new_file_time = new_file(projects_page, project_name, add_file_time)
projects_page, project_name, edit_file_time = edit_file(projects_page, project_name, new_file_time)
projects_page, project_name, rename_file_time = rename_file(projects_page, project_name, edit_file_time)
projects_page, project_name, delete_file_time = delete_file(projects_page, project_name, rename_file_time)
#Testing metadata for project operations
projects_page, project_name, add_object_time = add_object(projects_page, project_name, delete_file_time)
projects_page, project_name, replace_object_time = replace_object(projects_page, project_name, add_object_time)
projects_page, project_name, commit_project_time = commit_project(projects_page, project_name, replace_object_time)
projects_page, project_name, revert_project_time = revert_project(projects_page, project_name, commit_project_time)
projects_page.delete_project(project_name)
def _test_new_project(browser):
browser_download_location_path = get_browser_download_location_path(browser)
projects_page = begin(browser)
eq(projects_page.welcome_text, 'Welcome to OpenMDAO %s' % __version__)
# Create a project.
projects_page, project_dict = random_project(projects_page.new_project(),
verify=True, load_workspace=False)
# Go back to projects page to see if it is on the list.
assert projects_page.contains(project_dict['name'])
# Make sure all the project meta data was saved correctly.
edit_dialog = projects_page.edit_project(project_dict['name'])
eq(str(edit_dialog.project_name).strip(), project_dict['name'])
eq(str(edit_dialog.description).strip(), project_dict['description'])
eq(str(edit_dialog.version).strip(), project_dict['version']) # maxlength
# Edit the project meta data
project_dict['description'] = "pony express"
project_dict['version'] = "23432"
projects_page = edit_project(edit_dialog,
project_dict['name'],
project_dict['description'],
project_dict['version'])
# Make sure all the new project meta data was saved correctly.
edit_dialog = projects_page.edit_project(project_dict['name'])
eq(str(edit_dialog.project_name).strip(), project_dict['name'])
eq(str(edit_dialog.description).strip(), project_dict['description'])
eq(str(edit_dialog.version).strip(), project_dict['version'][:5]) # maxlength
edit_dialog.cancel()
# Export the project
projects_page.export_project(project_dict['name'])
project_pattern = project_dict['name'].replace(' ', '_') + '-*.proj'
project_pattern = os.path.join(browser_download_location_path,
project_pattern)
for i in range(10): # Give the download time to complete.
time.sleep(1)
project_path = glob.glob(project_pattern)
if project_path:
break
else:
assert False, 'Download of %r timed-out' % project_pattern
assert len(project_path) == 1
project_path = project_path[0]
# Delete the project in preparation for reimporting
projects_page.delete_project(project_dict['name'])
# Make sure the project was deleted
assert not projects_page.contains(project_dict['name'], False)
# Import the project and give it a new name
projects_page, project_dict = import_project(projects_page.import_project(),
project_path, verify=True,
load_workspace=False)
# Go back to projects page to see if it is on the list.
assert projects_page.contains(project_dict['name'])
# Delete the project that was just imported
projects_page.delete_project(project_dict['name'])
# remove the downloaded file
os.remove(project_path)
def move(state, verbose = True, super_verbose = False):
'''
Makes a random change to a state.
Picks two random teams, picks two random members, and performs
a swap of these members across the teams.
NOTE: there should be no teams of size 0 before calling the function.
'''
projects = state[0]
inv_cov_mat_tup = state[1]
project_one = util.random_project(projects, [], True)
project_two = util.random_project(projects, [], True)
# Guarantee that the projects are not the same.
# Continue to swap project two until it is diff from project one.
while (project_one.ID == project_two.ID):
project_two = util.random_project(projects, [], True)
if (super_verbose):
print "Project one and project two are the same."
if (super_verbose):
print "Found two different projects."
print "First team students are " + str([s.ID for s in project_one.students])
print "Second team students are " + str([s.ID for s in project_two.students])
print "CLEAR: made it to pick_team"
# Team to pick first students from
pick_team = util.random_two_choice()
if (pick_team == 0):
first_team = project_one
second_team = project_two
else:
first_team = project_two
second_team = project_one
# Pick a student from the first team, and this student will be swapped.
student_one = util.random_student(first_team)
student_two = util.random_student(second_team)
# NOTE: this is problematic if teams aren't full.
# Guarantee that the students are of the same type.
while (not (student_one.degree_pursuing == student_two.degree_pursuing)):
student_two = util.random_student(second_team)
# Remove the students from their respective teams
first_team.students.remove(student_one)
if (not(student_two in second_team.students)):
if (super_verbose):
print "Second team students is " + str([s.ID for s in second_team.students])
error = "Student two ("
error += str(student_two.ID)
error += ") is not in second_team.students ("
error += str(second_team.ID)
error += ") "
raise CompError(error)
second_team.students.remove(student_two)
first_team.students.append(student_two)
second_team.students.append(student_one)
if (verbose):
print "AFTER MOVE:"
for p in projects:
print str(p.ID) + ": " + str([s.ID for s in p.students])
state_after_change = (projects, inv_cov_mat_tup)
print energy(state_after_change)
return projects
def move(state, verbose = False, super_verbose = False):
'''
Makes a random change to a state.
Picks two random teams, picks two random members, and performs
a swap of these members across the teams.
NOTE: there should be no teams of size 0 before calling the function.
'''
projects = state[0]
inv_cov_mat_tup = state[1]
project_one = util.random_project(projects, [], True)
project_two = util.random_project(projects, [], True)
# Guarantee that the projects are not the same.
# Continue to swap project two until it is diff from project one.
while (project_one.ID == project_two.ID):
project_two = util.random_project(projects, [], True)
if (super_verbose):
print "Project one and project two are the same."
if (super_verbose):
print "Found two different projects."
print "First team students are " + str([s.ID for s in project_one.students])
print "Second team students are " + str([s.ID for s in project_two.students])
print "CLEAR: made it to pick_team"
# Team to pick first students from
pick_team = util.random_two_choice()
if (pick_team == 0):
first_team = project_one
second_team = project_two
else:
first_team = project_two
second_team = project_one
# Pick a student from the first team, and this student will be swapped.
student_one = util.random_student(first_team)
student_two = util.random_student(second_team)
# Remove the students from their respective teams
first_team.students.remove(student_one)
if (not(student_two in second_team.students)):
if (super_verbose):
print "Second team students is " + str([s.ID for s in second_team.students])
error = "Student two ("
error += str(student_two.ID)
error += ") is not in second_team.students ("
error += str(second_team.ID)
error += ") "
raise CompError(error)
second_team.students.remove(student_two)
first_team.students.append(student_two)
second_team.students.append(student_one)
if (verbose):
print "AFTER MOVE:"
for p in projects:
print str(p.ID) + ": " + str([s.ID for s in p.students])
#state_after_change = (projects, inv_cov_mat_tup)
#print energy(state_after_change)
return projects