static int read_any_identity(xmlNode *an, cp_any_identity_t **dst)
{
    cp_domain_t *domain, *last_domain = NULL;
    cp_except_domain_t *except, *last_except = NULL;
    xmlNode *n;
    int res = RES_OK;

    *dst = (cp_any_identity_t*)cds_malloc(sizeof(cp_any_identity_t));
    if (!*dst) return RES_MEMORY_ERR;
    memset(*dst, 0, sizeof(**dst));

    n = an->children;
    while (n) {
        if (n->type == XML_ELEMENT_NODE) {
            if (cmp_node(n, "domain", common_policy_ns) >= 0) {
                res = read_domain(n, &domain);
                if (res != 0) break;
                LINKED_LIST_ADD((*dst)->domains, last_domain, domain);
            }
            else if (cmp_node(n, "except-domain", common_policy_ns) >= 0) {
                res = read_except_domain(n, &except);
                if (res != 0) break;
                LINKED_LIST_ADD((*dst)->except_domains, last_except, except);
            }
        }

        n = n->next;
    }
    return res;
}
int read_service(xmlNode *list_node, service_t **dst)
{
	int res = 0;
	xmlAttr *a;
	const char *a_val;
	xmlNode *n;
	int first_node;

	DEBUG_LOG("read_service(): called\n");
	/* allocate memory and prepare empty node */
	if (!dst) return -1;
	*dst = (service_t*)cds_malloc(sizeof(service_t));
	if (!(*dst)) return -2;
	memset(*dst, 0, sizeof(service_t));

	/* get attributes */
	a = find_attr(list_node->properties, "uri");
	if (a) {
		a_val = get_attr_value(a);
		if (a_val) (*dst)->uri = zt_strdup(a_val);
	}

	/* read child nodes */
	n = list_node->children;
	first_node = 1;
	while (n) {
		if (n->type == XML_ELEMENT_NODE) {
			if (first_node) {
				/* element must be list or resource-list */
				if (cmp_node(n, "list", rls_namespace) >= 0) {
					res = read_list(n, &(*dst)->content.list, 0);
					if ( (res == 0) && ((*dst)->content.list) ) {
						(*dst)->content_type = stc_list;
					}
					else return -1;
				}
				else if (cmp_node(n, "resource-list", rls_namespace) >= 0) {
					a_val = get_node_value(n);
					if (a_val)
						(*dst)->content.resource_list = zt_strdup(a_val);
					else
						(*dst)->content.resource_list = NULL;
					(*dst)->content_type = stc_resource_list;
				}
				else return -1;

				first_node = 0;
			}
			else { /* packages node */
				if (cmp_node(n, "packages", rls_namespace) >= 0) {
					res = read_packages(n, &(*dst)->packages);
				}
				break;
			}
		}
		n = n->next;
	}
	
	return 0;
}
Beispiel #3
0
static int read_names(xmlNode *entry_node, display_name_t **dst)
{
	xmlNode *n;
	display_name_t *name, *last;
	int res = 0;
	
	last = NULL;
	*dst = NULL;
	n = entry_node->children;
	while (n) {
		if (n->type == XML_ELEMENT_NODE) {
			if (cmp_node(n, "display-name", rl_namespace) >= 0) {
				res = read_name(n, &name);
				if (res == 0) {
					if (name) {
						SEQUENCE_ADD((*dst), last, name);
						name = NULL;
					}
				}
				else break;
			}
		}
		n = n->next;
	}
	return res;
}
static int read_packages(xmlNode *list_node, packages_t **dst)
{
	int res = 0;
	xmlNode *n;
	package_t *p, *last;
	
	/* allocate memory and prepare empty node */
	if (!dst) return -1;
	*dst = (packages_t*)cds_malloc(sizeof(packages_t));
	if (!(*dst)) return -2;
	memset(*dst, 0, sizeof(packages_t));

	/* read packages */
	n = list_node->children;
	last = NULL;
	while (n) {
		if (n->type == XML_ELEMENT_NODE) {
			if (cmp_node(n, "package", rls_namespace) >= 0) {
				res = read_package(n, &p);
				if ((res == 0) && p) {
					SEQUENCE_ADD((*dst)->package, last, p);
				}
			}
		}
		n = n->next;
	}
	
	return 0;
}
Beispiel #5
0
/* 一番確率の低いノードを消去する*/
static void
remove_min_node(struct lattice_info *info, struct node_list_head *node_list)
{
  struct lattice_node* node = node_list->head;
  struct lattice_node* previous_node = NULL;
  struct lattice_node* min_node = node;
  struct lattice_node* previous_min_node = NULL;

  /* 一番確率の低いノードを探す */
  while (node) {
    if (cmp_node(node, min_node) < 0) {
      previous_min_node = previous_node;
      min_node = node;
    }
    previous_node = node;
    node = node->next;
  }

  /* 一番確率の低いノードを削除する */
  if (previous_min_node) {
    previous_min_node->next = min_node->next;
  } else {
    node_list->head = min_node->next;
  }
  release_lattice_node(info, min_node);
  node_list->nr_nodes --;
}
void down_heap(node_heap *h, oct_node p)
{
	int n = p->heap_idx, m;
	while (1) {
		m = n * 2;
		if (m >= h->n) break;
		if (m + 1 < h->n && cmp_node(h->buf[m], h->buf[m + 1]) > 0) m++;
 
		if (cmp_node(p, h->buf[m]) <= 0) break;
 
		h->buf[n] = h->buf[m];
		h->buf[n]->heap_idx = n;
		n = m;
	}
	h->buf[n] = p;
	p->heap_idx = n;
}
static int read_conditions(xmlNode *cn, cp_conditions_t **dst)
{
    xmlNode *n;
    int res = RES_OK;
    cp_sphere_t *sphere, * last_sphere = NULL;
    if ((!cn) || (!dst)) return RES_INTERNAL_ERR;

    *dst = (cp_conditions_t*)cds_malloc(sizeof(cp_conditions_t));
    if (!(*dst)) return RES_MEMORY_ERR;
    memset(*dst, 0, sizeof(cp_conditions_t));

    n = cn->children;
    while (n) {
        if (n->type == XML_ELEMENT_NODE) {
            if (cmp_node(n, "validity", common_policy_ns) >= 0) {
                /* FIXME: free existing validity */
                res = read_validity(n, &(*dst)->validity);
                if (res != 0) break;
            }
            else {
                if (cmp_node(n, "identity", common_policy_ns) >= 0) {
                    /* FIXME: free existing identity */
                    res = read_identity(n, &(*dst)->identity);
                    if (res != 0) break;
                }
                else {
                    if (cmp_node(n, "sphere", common_policy_ns) >= 0) {
                        res = read_sphere(n, &sphere);
                        if (res != 0) break;
                        LINKED_LIST_ADD((*dst)->spheres, last_sphere, sphere);
                    }
                    /* else process other elements ? */
                }

            }
        }
        n = n->next;
    }

    return res;
}
static int read_common_rules(xmlNode *root, cp_ruleset_t **dst,
                             cp_read_actions_func read_actions, cp_free_actions_func free_actions)
{
    cp_ruleset_t *rs = NULL;
    cp_rule_t *r, *last = NULL;
    xmlNode *n;
    int res = RES_OK;

    if (!dst) return RES_INTERNAL_ERR;
    else *dst = NULL;
    if (!root) return RES_INTERNAL_ERR;

    if (cmp_node(root, "ruleset", common_policy_ns) < 0) {
        ERROR_LOG("document is not a ruleset \n");
        return RES_INTERNAL_ERR;
    }

    rs = (cp_ruleset_t*)cds_malloc(sizeof(cp_ruleset_t));
    if (!rs) return RES_MEMORY_ERR;
    *dst = rs;
    memset(rs, 0, sizeof(*rs));


    /* read rules in ruleset */
    n = root->children;
    while (n) {
        if (n->type == XML_ELEMENT_NODE) {
            if (cmp_node(n, "rule", common_policy_ns) >= 0) {
                res = read_rule(n, &r, read_actions, free_actions);
                if (res == 0) {
                    if (r) LINKED_LIST_ADD(rs->rules, last, r);
                }
                else break;
            }
        }
        n = n->next;
    }

    return res;
}
Beispiel #9
0
static int read_resource_lists(xmlNode *root, resource_lists_t **dst)
{
	resource_lists_t *rl;
	/* xmlAttr *a; */
	xmlNode *n;
	list_t *l, *last_l;
	int res = 0;
	
	if (!dst) return -1;
	else *dst = NULL;
	if (!root) return -1;
	
	if (cmp_node(root, "resource-lists", rl_namespace) < 0) {
		ERROR_LOG("document is not a resource-lists\n");
		return -1;
	}

	rl = (resource_lists_t*)cds_malloc(sizeof(resource_lists_t));
	if (!rl) return -2;
	*dst = rl;
	rl->lists = NULL;
	
	last_l = NULL;
	n = root->children;
	while (n) {
		if (n->type == XML_ELEMENT_NODE) {
			if (cmp_node(n, "list", rl_namespace) >= 0) {
				res = read_list(n, &l, 0);
				if (res == 0) {
					if (l) SEQUENCE_ADD(rl->lists, last_l, l);
				}
				else break;
			}
		}
		n = n->next;
	}

	return res;
}
Beispiel #10
0
bool			node_in_list(t_points *list, t_points *node)
{
  t_points		*it;

  it = list->next;
  while (it != list)
    {
      if (cmp_node(it, node))
	return (true);
      it = it->next;
    }
  return (false);
}
Beispiel #11
0
/*
 * 構成中のラティスにノードを追加する
 */
static void
push_node(struct lattice_info* info, struct lattice_node* new_node,
	  int position)
{
  struct lattice_node* node;
  struct lattice_node* previous_node = NULL;

  if (anthy_splitter_debug_flags() & SPLITTER_DEBUG_LN) {
    print_lattice_node(info, new_node);
  }

  /* 先頭のnodeが無ければ無条件に追加 */
  node = info->lattice_node_list[position].head;
  if (!node) {
    info->lattice_node_list[position].head = new_node;
    info->lattice_node_list[position].nr_nodes ++;
    return;
  }

  while (node->next) {
    /* 余計なノードを追加しないための枝刈り */
    if (new_node->seg_class == node->seg_class &&
	new_node->border == node->border) {
      /* segclassが同じで、始まる位置が同じなら */
      switch (cmp_node(new_node, node)) {
      case 0:
      case 1:
	/* 新しい方が確率が大きいか学習によるものなら、古いのと置き換え*/
	if (previous_node) {
	  previous_node->next = new_node;
	} else {
	  info->lattice_node_list[position].head = new_node;
	}
	new_node->next = node->next;
	release_lattice_node(info, node);
	break;
      case -1:
	/* そうでないなら削除 */
	release_lattice_node(info, new_node);
	break;
      }
      return;
    }
    previous_node = node;
    node = node->next;
  }

  /* 最後のノードの後ろに追加 */
  node->next = new_node;
  info->lattice_node_list[position].nr_nodes ++;
}
static int read_rls_services(xmlNode *root, rls_services_t **dst)
{
	/* xmlAttr *a; */
	xmlNode *n;
	service_t *l, *last_l;
	int res = 0;
	
	if (!root) return -1;
	if (!dst) return -1;
	
	if (cmp_node(root, "rls-services", rls_namespace) < 0) {
		ERROR_LOG("document is not a rls-services\n");
		return -1;
	}

	*dst = (rls_services_t*)cds_malloc(sizeof(rls_services_t));
	if (!(*dst)) return -2;
	(*dst)->rls_services = NULL;
	
	last_l = NULL;
	n = root->children;
	while (n) {
		if (n->type == XML_ELEMENT_NODE) {
			if (cmp_node(n, "service", rls_namespace) >= 0) {
				res = read_service(n, &l);
				if (res == 0) {
					if (l) SEQUENCE_ADD((*dst)->rls_services, last_l, l);
				}
				else break;
			}
		}
		n = n->next;
	}

	return res;
}
void up_heap(node_heap *h, oct_node p)
{
	int n = p->heap_idx;
	oct_node prev;
 
	while (n > 1) {
		prev = h->buf[n / 2];
		if (cmp_node(p, prev) >= 0) break;
 
		h->buf[n] = prev;
		prev->heap_idx = n;
		n /= 2;
	}
	h->buf[n] = p;
	p->heap_idx = n;
}
Beispiel #14
0
/* いわゆるビタビアルゴリズムを使用して経路を選ぶ */
static void
choose_path(struct lattice_info* info, int to)
{
  /* 最後まで到達した遷移のなかで一番確率の大きいものを選ぶ */
  struct lattice_node* node;
  struct lattice_node* best_node = NULL;
  int last = to;
  while (!info->lattice_node_list[last].head) {
    /* 最後の文字まで遷移していなかったら後戻り */
    --last;
  }
  for (node = info->lattice_node_list[last].head; node; node = node->next) {
    if (cmp_node(node, best_node) > 0) {
      best_node = node;
    }
  }
  if (!best_node) {
    return;
  }

  /* 遷移を逆にたどりつつ文節の切れ目を記録 */
  node = best_node;
  if (anthy_splitter_debug_flags() & SPLITTER_DEBUG_LN) {
    printf("choose_path()\n");
  }
  while (node->before_node) {
    info->sc->word_split_info->best_seg_class[node->border] =
      node->seg_class;
    anthy_mark_border_by_metaword(info->sc, node->mw);
    /**/
    if (anthy_splitter_debug_flags() & SPLITTER_DEBUG_LN) {
      print_lattice_node(info, node);
    }
    /**/
    node = node->before_node;
  }
}
Beispiel #15
0
 Node *limit() const               { Node *tmp = cmp_node(); return (tmp && tmp->req()==3) ? tmp->in(2) : NULL; }
Beispiel #16
0
 Node *incr() const                { Node *tmp = cmp_node(); return (tmp && tmp->req()==3) ? tmp->in(1) : NULL; }
Beispiel #17
0
int read_list(xmlNode *list_node, list_t **dst, int read_content_only)
{
	int res = 0;
	xmlAttr *a;
	const char *a_val;
	xmlNode *n;
	list_content_t *l, *last_l;
	
	/* allocate memory and prepare empty node */
	if (!dst) return -1;
	*dst = (list_t*)cds_malloc(sizeof(list_t));
	if (!(*dst)) return -2;
	memset(*dst, 0, sizeof(list_t));

	/* get attributes */
	if (!read_content_only) {
		a = find_attr(list_node->properties, "name");
		if (a) {
			a_val = get_attr_value(a);
			if (a_val) (*dst)->name = zt_strdup(a_val);
		}
	}

	/* read entries */
	last_l = NULL;
	n = list_node->children;
	while (n) {
		if (n->type == XML_ELEMENT_NODE) {
			l = (list_content_t*) cds_malloc(sizeof(list_content_t));
			if (!l) return -1;
			memset(l, 0, sizeof(*l));
			
			if (cmp_node(n, "list", rl_namespace) >= 0) {
				res = read_list(n, &l->u.list, 0);
				if (res == 0) {
					if (l->u.list) {
						l->type = lct_list;
						SEQUENCE_ADD((*dst)->content, last_l, l);
						l = NULL;
					}
				}
				else break;
			}
			
			if (cmp_node(n, "entry", rl_namespace) >= 0) {
				res = read_entry(n, &l->u.entry);
				if (res == 0) {
					if (l->u.entry) {
						l->type = lct_entry;
						SEQUENCE_ADD((*dst)->content, last_l, l);
						l = NULL;
					}
				}
				else break;
			}
			
			if (cmp_node(n, "entry-ref", rl_namespace) >= 0) {
				res = read_entry_ref(n, &l->u.entry_ref);
				if (res == 0) {
					if (l->u.entry_ref) {
						l->type = lct_entry_ref;
						SEQUENCE_ADD((*dst)->content, last_l, l);
						l = NULL;
					}
				}
				else break;
			}
			
			if (cmp_node(n, "external", rl_namespace) >= 0) {
				res = read_external(n, &l->u.external);
				if (res == 0) {
					if (l->u.external) {
						l->type = lct_external;
						SEQUENCE_ADD((*dst)->content, last_l, l);
						l = NULL;
					}
				}
				else break;
			}
			
			if (l) {
				cds_free(l);
				l = NULL;
			}
			
		}
		n = n->next;
	}
	
	return 0;
}