def alive(person):
"""Whether the person is alive"""
# If we have no birth date, we could assume it is at least 15 years
# before the first child's birth date (recursively). But that becomes
# more expensive to compute
return not person.death \
and (not person.birth
or DateRange.today().years_since(person.birth.Date) <= max_age)
def alive(person):
"""Whether the person is alive"""
# If we have no birth date, we could assume it is at least 15 years
# before the first child's birth date (recursively). But that becomes
# more expensive to compute
return not person.death \
and (not person.birth
or DateRange.today().years_since(person.birth.Date) <= max_age)
def default (self, obj):
"""See inherited documentation"""
if isinstance (obj, models.Persona):
b = self._event (obj.birth)
d = self._event (obj.death)
if not year_only and obj.birth:
if obj.death:
if obj.death.Date:
age = " (age " \
+ str (obj.death.Date.years_since (obj.birth.Date)) \
+ ")"
d[0] += age
else:
age = " (age " \
+ str (DateRange.today().years_since (obj.birth.Date)) \
+ ")"
d = [age, None, None]
return {"id":obj.id, "givn":obj.given_name,
'surn':obj.surname, 'sex':obj.sex,
'generation': obj.generation,
'y':obj.styles, 'b':b, 'd':d}
elif isinstance (obj, DateRange):
return obj.display(year_only=year_only)
elif isinstance (obj, models.Event):
return self._event (obj)
elif isinstance(obj, set):
return list(obj)
elif hasattr(obj, 'to_json'):
return obj.to_json()
return super (ModelEncoder, self).default(obj)
def alive(person):
"""Whether the person is alive"""
# If we have no birth date, we could assume it is at least 15 years
# before the first child's birth date (recursively). But that becomes
# more expensive to compute
logger.error('Did not compute birth or death for person')
return False
if person.death is not None:
return False
elif person.birth is None:
# Might be alive. We could look at other events to guess at the
# timeframe
return True
else:
d = DateRange.today().years_since(person.birth.Date)
if d is None:
# Could not compute elapsed time (likely because birth has no know
# year
return True
else:
return d <= max_age
def __init__(self, rules, graph, decujus):
"""Rules specifies the rules to use for the highlighting.
"""
super(Styles, self).__init__()
# Preprocess the rules for faster computation
self.graph = graph
self.rules = []
self.today = DateRange.today()
self.counts = [None] * len(rules) # the "count" rules: (test, value)
self._need_place_parts = False
self.styles_count = 0
for index, r in enumerate(rules):
rule_name, rule_type, rule_tests, rule_style = r
if rule_type in (RULE_EVENT, RULE_ATTR):
tests = []
for t in rule_tests:
if t[0] == "count" and rule_type == RULE_EVENT:
# Handled separately at the end
self.counts[index] = (rules_func[t[1]], t[2])
continue
elif t[0] == "ancestor" and rule_type == RULE_ATTR:
ancestors = graph.people_in_tree(
id=t[2], maxdepthAncestors=-1, maxdepthDescendants=0)
tests.append((t[0], [a.main_id for a in ancestors]))
continue
elif t[0] == "descendant" and rule_type == RULE_ATTR:
descendants = graph.people_in_tree(
id=t[2], maxdepthAncestors=0, maxdepthDescendants=-1)
tests.append((t[0], [a.main_id for a in descendants]))
continue
elif t[0] == "IMPLEX" and rule_type == RULE_ATTR:
# ??? We used to preprocess the tree to know how many times
# an id occurred in the tree, but the graph no longer
# provides that info
def build_implex(counts, id):
counts[id] = counts.get(id, 0) + 1
fathers = graph.fathers(id)
if fathers:
build_implex(counts, fathers[0].main_id)
mothers = graph.mothers(id)
if mothers:
build_implex(counts, mothers[0].main_id)
counts = dict()
build_implex(
counts, graph.node_from_id(decujus).main_id)
tests.append((t[0], rules_func[t[1]], t[2], counts))
continue
elif t[0].startswith("place.") and t[0] != "place.name":
self._need_place_parts = True
if t[1] == RULE_CONTAINS_INSENSITIVE \
or t[1] == RULE_CONTAINS_NOT_INSENSITIVE \
or t[1] == RULE_IS_INSENSITIVE:
tests.append((t[0], rules_func[t[1]], t[2].lower()))
elif t[1] == RULE_BEFORE:
tests.append((t[0], rules_func[t[1]], DateRange(t[2])))
else:
tests.append((t[0], rules_func[t[1]], t[2]))
self.rules.append((rule_type, tests, rule_style))
else:
print "Unknown rule tag in the style rules: %s" % r
self.no_match = [0] * len(self.rules)
def __init__(self, rules, graph, decujus):
"""Rules specifies the rules to use for the highlighting.
"""
super(Styles, self).__init__()
# Preprocess the rules for faster computation
self.graph = graph
self.rules = []
self.today = DateRange.today()
self.counts = [None] * len(rules) # the "count" rules: (test, value)
self._need_place_parts = False
self.styles_count = 0
for index, r in enumerate(rules):
rule_name, rule_type, rule_tests, rule_style = r
if rule_type in (RULE_EVENT, RULE_ATTR):
tests = []
for t in rule_tests:
if t[0] == "count" and rule_type == RULE_EVENT:
# Handled separately at the end
self.counts[index] = (rules_func[t[1]], t[2])
continue
elif t[0] == "ancestor" and rule_type == RULE_ATTR:
ancestors = graph.people_in_tree(id=t[2],
maxdepthAncestors=-1,
maxdepthDescendants=0)
tests.append((t[0], [a.main_id for a in ancestors]))
continue
elif t[0] == "descendant" and rule_type == RULE_ATTR:
descendants = graph.people_in_tree(
id=t[2],
maxdepthAncestors=0,
maxdepthDescendants=-1)
tests.append((t[0], [a.main_id for a in descendants]))
continue
elif t[0] == "IMPLEX" and rule_type == RULE_ATTR:
# ??? We used to preprocess the tree to know how many times
# an id occurred in the tree, but the graph no longer
# provides that info
def build_implex(counts, id):
counts[id] = counts.get(id, 0) + 1
fathers = graph.fathers(id)
if fathers:
build_implex(counts, fathers[0].main_id)
mothers = graph.mothers(id)
if mothers:
build_implex(counts, mothers[0].main_id)
counts = dict()
build_implex(counts,
graph.node_from_id(decujus).main_id)
tests.append((t[0], rules_func[t[1]], t[2], counts))
continue
elif t[0].startswith("place.") and t[0] != "place.name":
self._need_place_parts = True
if t[1] == RULE_CONTAINS_INSENSITIVE \
or t[1] == RULE_CONTAINS_NOT_INSENSITIVE \
or t[1] == RULE_IS_INSENSITIVE:
tests.append((t[0], rules_func[t[1]], t[2].lower()))
elif t[1] == RULE_BEFORE:
tests.append((t[0], rules_func[t[1]], DateRange(t[2])))
else:
tests.append((t[0], rules_func[t[1]], t[2]))
self.rules.append((rule_type, tests, rule_style))
else:
print "Unknown rule tag in the style rules: %s" % r
self.no_match = [0] * len(self.rules)
def __get_events(nodes,
styles,
graph,
types=None,
schemes=None,
query_groups=True):
"""Compute the events for the various persons in IDS (all all persons in
the database if None)
:param nodes:
A set of graph.Persona_node, or None to get all persons from the
database.
:param graph: an instance of Graph, which is used to compute whether
two ids represent the same person.
:return: a list of persons:
* persons is a dictionary of Persona instances, indexed on persona_id
SCHEMES is the list of ids of Surety_Scheme that are used. You
should pass a set() if you are interested in this. Otherwise, it is
just discarded.
This sets persons[*].chars to a list of the characteristics.
Only the events of type in TYPES are returned
"""
if nodes:
ids = [a.main_id for a in nodes]
else:
ids = None
compute_parts = styles and styles.need_place_parts()
roles = dict() # role_id -> name
places = dict() # place_id -> place
assert (schemes is None or isinstance(schemes, set))
# Get the role names
for role in models.Event_Type_Role.objects.all():
roles[role.id] = role.name
##############
# Create the personas that will be returned.
##############
persons = dict() # id -> person
if ids:
for p in sql_in(models.Persona.objects, "id", ids):
# p.id is always the main_id, since that's how ids was built
persons[p.id] = p
__add_default_person_attributes(p)
else:
for p in models.Persona.objects.all():
mid = graph.node_from_id(p.id).main_id
if mid not in persons:
persons[mid] = p
__add_default_person_attributes(p)
################
# Check all events that the persons were involved in.
################
events = models.P2E.objects.select_related('event', 'event__place',
'event__type', 'surety')
if types:
events = events.filter(event__type__in=types)
all_ids = None
if nodes:
all_ids = set()
for p in nodes:
all_ids.update(p.ids)
all_events = dict()
# All query the 'principal' for each events, so that we can provide
# that information graphically.
for p in sql_in(events, "person", all_ids):
# or_q=Q(role=models.Event_Type_Role.principal)):
e = p.event
p_node = graph.node_from_id(p.person_id)
person = persons[p_node.main_id]
person.all_events[e.id] = EventInfo(event=e,
role=roles[p.role_id],
assertion=p)
e.sources = getattr(e, "sources", set())
e.sources.add(p.source_id)
e.Date = e.date and DateRange(e.date)
if schemes is not None:
schemes.add(p.surety.scheme_id)
if compute_parts and e.place:
places[e.place_id] = e.place
if styles:
styles.process(person, p.role_id, e)
if not p.disproved \
and p.role_id == models.Event_Type_Role.principal:
if not e.Date:
pass
elif e.type_id == models.Event_Type.birth:
if person.birth is None \
or person.birth.date_sort > e.date_sort:
person.birth = e
elif e.type_id == models.Event_Type.death:
if person.death is None \
or person.death.date_sort < e.date_sort:
person.death = e
elif e.type_id == models.Event_Type.marriage:
person.marriage = e
#########
# Get all groups to which the personas belong
#########
if query_groups:
groups = models.P2G.objects.select_related('group')
for gr in sql_in(groups, "person", all_ids):
p_node = graph.node_from_id(gr.person_id)
person = persons[p_node.main_id]
person.all_groups[gr.group_id] = GroupInfo(group=gr.group,
assertion=gr)
if gr.source_id:
src = getattr(gr.group, "sources", [])
src.append(gr.source_id)
gr.group.sources = src
gr.group.role = gr.role
if schemes is not None:
schemes.add(gr.surety.scheme_id)
#########
# Get all characteristics of these personas
#########
p2c = dict() # characteristic_id -> person
all_p2c = models.P2C.objects.select_related('characteristic',
'characteristic__place')
for p in sql_in(all_p2c, "person", all_ids):
c = p.characteristic
p_node = graph.node_from_id(p.person_id)
person = persons[p_node.main_id]
p2c[c.id] = person
c.sources = getattr(c, "sources", set())
c.sources.add(p.source_id)
c.date = c.date and DateRange(c.date)
if schemes is not None:
schemes.add(p.surety.scheme_id)
person.all_chars[c.id] = CharInfo(char=c, assertion=p, parts=[])
if compute_parts and c.place:
places[c.place_id] = c.place
chars = models.Characteristic_Part.objects.select_related(
'type', 'characteristic', 'characteristic__place')
for part in sql_in(chars, "characteristic", nodes and p2c.keys()):
person = p2c[part.characteristic_id]
ch = person.all_chars[part.characteristic_id]
ch.parts.append(CharPartInfo(name=part.type.name, value=part.name))
if part.type_id == models.Characteristic_Part_Type.sex:
person.sex = part.name
elif part.type_id == models.Characteristic_Part_Type.given_name:
person.given_name = part.name
elif part.type_id == models.Characteristic_Part_Type.surname:
person.surname = part.name
########
# Compute place parts once, to limit the number of queries
# These are only used for styles, not for actual display, although we
# could benefit from them.
########
if compute_parts:
prev_place = None
d = None
for p in sql_in(
models.Place_Part.objects.order_by('place').select_related(
'type'), "place", places.keys()):
# ??? We should also check the parent place to gets its own parts
if p.place_id != prev_place:
prev_place = p.place_id
d = dict()
setattr(places[prev_place], "parts", d)
d[p.type.name] = p.name
return persons
def default(self, obj):
"""See inherited documentation"""
if self.custom:
p = self.custom(obj)
if p:
return p
if isinstance(obj, DateRange):
return obj.display(year_only=self.year_only)
elif isinstance(obj, datetime.datetime):
return obj.isoformat()
elif isinstance(obj, django.db.models.query.QuerySet):
return list(obj)
elif isinstance(obj, GroupInfo):
return dict(group=obj.group, assertion=obj.assertion)
elif isinstance(obj, CharInfo):
return dict(char=obj.char,
parts=obj.parts,
assertion=obj.assertion)
elif isinstance(obj, CharPartInfo):
return dict(name=obj.name, value=obj.value)
elif isinstance(obj, models.Characteristic):
return dict(
name=obj.name,
sources=list(obj.sources if hasattr(obj, 'sources') else []),
date=obj.date,
date_sort=obj.date_sort,
place=obj.place)
elif isinstance(obj, models.Assertion):
result = dict(disproved=obj.disproved,
rationale=obj.rationale,
surety=obj.surety_id)
if isinstance(obj, models.P2P):
result['person1'] = obj.person1
result['person2'] = obj.person2
elif isinstance(obj, models.P2E):
result['date'] = obj.event.date and DateRange(obj.event.date)
result['place'] = obj.event.place and obj.event.place.name
result['person1'] = obj.person
result['event2'] = (obj.event, obj.role.name)
elif isinstance(obj, models.P2C):
parts = []
for p in models.Characteristic_Part.objects.filter(
characteristic=obj.characteristic).select_related():
parts.append((p.type.name, p.name))
result['date'] = \
obj.characteristic.date and DateRange(obj.characteristic.date)
result['place'] = \
obj.characteristic.place and obj.characteristic.place.name
result['person1'] = obj.person
result['char2'] = (obj.characteristic, parts)
return result
elif isinstance(obj, models.Source):
return dict(higher_source_id=obj.higher_source_id,
subject_place=obj.subject_place,
jurisdiction_place=obj.jurisdiction_place,
researcher=obj.researcher,
subject_date=obj.subject_date,
medium=obj.medium,
title=obj.title,
abbrev=obj.abbrev,
biblio=obj.biblio,
last_change=obj.last_change,
comments=obj.comments)
elif isinstance(obj, EventInfo):
return dict(event=obj.event,
role=obj.role,
assertion=obj.assertion)
elif isinstance(obj, models.Event):
return dict(
id=obj.id,
name=obj.name,
type=obj.type,
place=obj.place,
sources=list(obj.sources if hasattr(obj, 'sources') else []),
date=obj.date,
date_sort=obj.date_sort)
elif isinstance(obj, set):
return list(obj)
elif hasattr(obj, 'to_json'):
return obj.to_json()
else:
return super(ModelEncoder, self).default(obj)
