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349 | def search(answers, options):
'''Build SPARQL queries from user search criteria, execute them, and store results.
Dispatches on ``answers["search"]["options"]`` to one of three search
modes: Interdisciplinary Workflow, Mathematical Model, or Algorithm.
For each mode, constructs a SPARQL query from the selected filter criteria,
executes it against the appropriate endpoint (MaRDI Portal or MathAlgoDB),
and writes the escaped query string, result count, and link list back into
*answers*.
Args:
answers: Top-level answers dict (mutated in place with ``"query"``,
``"no_results"``, and ``"links"`` keys).
options: Global RDMO options dict used for option-value comparisons.
Returns:
The mutated *answers* dict.
'''
if answers['search'].get('options') == options['InterdisciplinaryWorkflow']:
# SPARQL via Research Objectives
quote_str = ''
res_obj_strs = ''
# If SPARQL query via research objective desired
if answers['search'].get('via_research_objective') == options['Yes']:
quote_str = quote_sparql
# Separate key words for SPARQL query vie research objective
if answers['search'].get('research_objective'):
for res_obj in answers['search']['research_objective'].values():
# Define Filters for SPARQL queries
res_obj_strs += res_obj_sparql.format(res_obj.lower())
# SPARQL via Research Disciplines
res_disc_str = ''
# If SPARQL query via research discipline desired
if answers['search'].get('via_research_discipline') == options['Yes']:
# Separate disciplines for SPARQL query via research discipline
if answers['search'].get('research_discipline'):
for key in answers['search']['research_discipline'].keys():
# Get ID and Name of Research Discipline
identifier = answers['search']['research_discipline'][key]['ID'].split(':')[1]
name = answers['search']['research_discipline'][key]['Name']
answers['search']['research_discipline'][key].update({'ID': identifier})
answers['search']['research_discipline'][key].update({'Name': name})
# Define Filters for SPARQL queries
res_disc_str += res_disc_sparql.format(
identifier.split(':')[-1],
**get_items(),
**get_properties()
)
# SPARQL via Mathematical Models, Methods, Softwares, Input or Output Data Sets
mmsios_str = ''
# If SPARQL query via Mathematical Models, Methods, Softwares, Input or Output Data Sets
if answers['search'].get('via_workflow_entity') == options['Yes']:
# Separate Mathematical Model, Methods, Software, Input or Output Data Sets
if answers['search'].get('workflow_entity'):
for key in answers['search']['workflow_entity'].keys():
# Get ID and Name of Research Discipline
identifier = answers['search']['workflow_entity'][key]['ID'].split(':')[1]
name = answers['search']['workflow_entity'][key]['Name']
answers['search']['workflow_entity'][key].update({'ID': identifier})
answers['search']['workflow_entity'][key].update({'Name': name})
# Define Filters for SPARQL queries
mmsios_str += mmsio_sparql.format(
identifier.split(':')[-1],
**get_items(),
**get_properties()
)
# Set up entire SPARQL query
query = "\n".join(
line
for line in query_base_workflow.format(
res_disc_str,
mmsios_str,
quote_str,
res_obj_strs,
**get_items(),
**get_properties(),
).splitlines()
if line.strip()
)
# Add Query to answer dictionary
answers['query'] = html.escape(query).replace('\n', '<br>')
# Query MaRDI Portal
results = query_sparql(query, get_url('mardi', 'sparql'))
# Number of Results
answers['no_results'] = str(len(results))
# Generate Links to Wikipage and Knowledge Graoh Entry of Results
links=[]
for result in results:
links.append(
[
result["label"]["value"],
f"{get_url('mardi', 'uri')}/wiki/workflow:{result['qid']['value'][1:]}",
f"{get_item_url('mardi')}{result['qid']['value']}"
]
)
answers['links'] = links
elif answers['search'].get('options') == options['MathematicalModel']:
# SPARQL via Research Problems
pro_str = ''
pro_fil_strs = ''
# If SPARQL query via research objective desired
if answers['search'].get('via_research_problem') == options['Yes']:
pro_str = problem_sparql.format(**get_items(), **get_properties())
# Separate key words for SPARQL query vie research objective
if answers['search'].get('research_problem'):
for res_pro in answers['search']['research_problem'].values():
# Define Filters for SPARQL queries
pro_fil_strs += problem_filter_sparql.format(res_pro.lower())
# SPARQL via Research Fields
fie_str = ''
# If SPARQL query via research field desired
if answers['search'].get('via_research_field') == options['Yes']:
#fie_str = field_sparql
# Separate key words for SPARQL query vie research objective
if answers['search'].get('research_field'):
for key in answers['search']['research_field'].keys():
# Get ID and Name of Research Field
identifier = answers['search']['research_field'][key]['ID'].split(':')[1]
name = answers['search']['research_field'][key]['Name']
answers['search']['research_field'][key].update({'ID': identifier})
answers['search']['research_field'][key].update({'Name': name})
# Define Filters for SPARQL queries
fie_str += field_sparql.format(
identifier,
**get_items(),
**get_properties()
)
# SPARQL via Mathematical Formulations, Computational Task and Quantities
for_str = ''
ta_str = ''
qu_str = quantity_sparql.format(**get_items(), **get_properties())
# If SPARQL query via model entity desired
if answers['search'].get('via_model_entity') == options['Yes']:
# Via Formulations
if answers['search'].get('model_formulation'):
for key in answers['search']['model_formulation'].keys():
# Get ID and Name of Formulation
identifier = answers['search']['model_formulation'][key]['ID'].split(':')[1]
name = answers['search']['model_formulation'][key]['Name']
answers['search']['model_formulation'][key].update({'ID': identifier})
answers['search']['model_formulation'][key].update({'Name': name})
# Define Filters for SPARQL queries
for_str += formulation_sparql.format(
identifier,
**get_items(),
**get_properties()
)
# Via Computational Tasls
if answers['search'].get('model_task'):
for key in answers['search']['model_task'].keys():
# Get ID and Name of Computational Task
identifier = answers['search']['model_task'][key]['ID'].split(':')[1]
name = answers['search']['model_task'][key]['Name']
answers['search']['model_task'][key].update({'ID': identifier})
answers['search']['model_task'][key].update({'Name': name})
# Define Filters for SPARQL queries
ta_str += task_sparql.format(
identifier,
**get_items(),
**get_properties()
)
# Via Computational Tasls
if answers['search'].get('model_quantity'):
for idx, key in enumerate(answers['search']['model_quantity'].keys()):
# Get ID and Name of Computational Task
identifier = answers['search']['model_quantity'][key]['ID'].split(':')[1]
name = answers['search']['model_quantity'][key]['Name']
answers['search']['model_quantity'][key].update({'ID': identifier})
answers['search']['model_quantity'][key].update({'Name': name})
# Define Filters for SPARQL queries
if idx == 0:
qu_str += quantity_filter_sparql.format(
identifier,
**get_items(),
**get_properties()
)
else:
qu_str += """\n UNION""" + quantity_filter_sparql.format(
identifier,
**get_items(),
**get_properties()
)
# Set up entire SPARQL query
query = "\n".join(
line
for line in query_base_model.format(
pro_str,
pro_fil_strs,
fie_str,
for_str,
ta_str,
qu_str,
**get_items(),
**get_properties()
).splitlines()
if line.strip()
)
# Add Query to answer dictionary
answers['query'] = html.escape(query).replace('\n', '<br>')
# Query MathModDB
results = query_sparql(query, get_url('mardi', 'sparql'))
# Number of Results
answers['no_results'] = str(len(results))
# Generate Links to Entry
links=[]
for result in results:
links.append(
[
result["label"]["value"],
f"{get_url('mardi', 'uri')}/wiki/model:{result['qid']['value'][1:]}",
f"{get_item_url('mardi')}{result['qid']['value']}"
]
)
answers['links'] = links
elif answers['search'].get('options') == options['Algorithm']:
# SPARQL via Algorithmic Problems
apr_str = ''
apr_fil_strs = ''
# If SPARQL query via research objective desired
if answers['search'].get('via_algorithmic_problem') == options['Yes']:
apr_str = algorithmic_problem_sparql
# Separate key words for SPARQL query vie research objective
if answers['search'].get('algorithmic_problem'):
for alg_pro in answers['search']['algorithmic_problem'].values():
# Define Filters for SPARQL queries
apr_fil_strs += algorithmic_problem_filter_sparql.format(alg_pro.lower())
# SPARQL via Softwares
sof_str = ''
# If SPARQL query via software desired
if answers['search'].get('via_software') == options['Yes']:
# Separate key words for SPARQL query vie research objective
if answers['search'].get('software'):
for key in answers['search']['software'].keys():
# Get ID and Name of Software
identifier = answers['search']['software'][key]['ID'].split(':')[1]
name = answers['search']['software'][key]['Name']
answers['search']['software'][key].update({'ID': identifier})
answers['search']['software'][key].update({'Name': name})
# Define Filters for SPARQL queries
sof_str += software_sparql.format(f"software:{identifier}")
# Set up entire SPARQL query
query = "\n".join(
line
for line in query_base_algorithm.format(
apr_str,
apr_fil_strs,
sof_str
).splitlines()
if line.strip()
)
# Add Query to answer dictionary
answers['query'] = html.escape(query).replace('\n', '<br>')
# Query MathAlgoDB
results = query_sparql(query, get_url('mathalgodb', 'sparql'))
# Number of Results
answers['no_results'] = str(len(results))
# Generate Links to Entry
links=[]
for result in results:
links.append(
[
result["label"]["value"],
get_url('mathalgodb', 'uri') + 'object/al:' + result["qid"]["value"],
''
]
)
answers['links'] = links
return answers
|