Added boost header

This commit is contained in:
Christophe Riccio
2012-01-08 01:26:07 +00:00
parent 9c3faaca40
commit c7d752cdf8
8946 changed files with 1732316 additions and 0 deletions

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#ifndef DYNAMIC_PROPERTY_MAP_RG09302004_HPP
#define DYNAMIC_PROPERTY_MAP_RG09302004_HPP
// Copyright 2004-5 The Trustees of Indiana University.
// Use, modification and distribution is subject to the Boost Software
// License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// dynamic_property_map.hpp -
// Support for runtime-polymorphic property maps. This header is factored
// out of Doug Gregor's routines for reading GraphML files for use in reading
// GraphViz graph files.
// Authors: Doug Gregor
// Ronald Garcia
//
#include <boost/config.hpp>
#include <boost/throw_exception.hpp>
#include <boost/property_map/property_map.hpp>
#include <boost/lexical_cast.hpp>
#include <boost/any.hpp>
#include <boost/function/function3.hpp>
#include <boost/type_traits/is_convertible.hpp>
#include <typeinfo>
#include <boost/mpl/bool.hpp>
#include <stdexcept>
#include <sstream>
#include <map>
#include <boost/type.hpp>
#include <boost/smart_ptr.hpp>
namespace boost {
namespace detail {
// read_value -
// A wrapper around lexical_cast, which does not behave as
// desired for std::string types.
template<typename Value>
inline Value read_value(const std::string& value)
{ return boost::lexical_cast<Value>(value); }
template<>
inline std::string read_value<std::string>(const std::string& value)
{ return value; }
}
// dynamic_property_map -
// This interface supports polymorphic manipulation of property maps.
class dynamic_property_map
{
public:
virtual ~dynamic_property_map() { }
virtual boost::any get(const any& key) = 0;
virtual std::string get_string(const any& key) = 0;
virtual void put(const any& key, const any& value) = 0;
virtual const std::type_info& key() const = 0;
virtual const std::type_info& value() const = 0;
};
//////////////////////////////////////////////////////////////////////
// Property map exceptions
//////////////////////////////////////////////////////////////////////
struct dynamic_property_exception : public std::exception {
virtual ~dynamic_property_exception() throw() {}
virtual const char* what() const throw() = 0;
};
struct property_not_found : public dynamic_property_exception {
std::string property;
mutable std::string statement;
property_not_found(const std::string& property) : property(property) {}
virtual ~property_not_found() throw() {}
const char* what() const throw() {
if(statement.empty())
statement =
std::string("Property not found: ") + property + ".";
return statement.c_str();
}
};
struct dynamic_get_failure : public dynamic_property_exception {
std::string property;
mutable std::string statement;
dynamic_get_failure(const std::string& property) : property(property) {}
virtual ~dynamic_get_failure() throw() {}
const char* what() const throw() {
if(statement.empty())
statement =
std::string(
"dynamic property get cannot retrieve value for property: ")
+ property + ".";
return statement.c_str();
}
};
struct dynamic_const_put_error : public dynamic_property_exception {
virtual ~dynamic_const_put_error() throw() {}
const char* what() const throw() {
return "Attempt to put a value into a const property map: ";
}
};
namespace detail {
//
// dynamic_property_map_adaptor -
// property-map adaptor to support runtime polymorphism.
template<typename PropertyMap>
class dynamic_property_map_adaptor : public dynamic_property_map
{
typedef typename property_traits<PropertyMap>::key_type key_type;
typedef typename property_traits<PropertyMap>::value_type value_type;
typedef typename property_traits<PropertyMap>::category category;
// do_put - overloaded dispatches from the put() member function.
// Attempts to "put" to a property map that does not model
// WritablePropertyMap result in a runtime exception.
// in_value must either hold an object of value_type or a string that
// can be converted to value_type via iostreams.
void do_put(const any& in_key, const any& in_value, mpl::bool_<true>)
{
#if !(defined(__GNUC__) && (__GNUC__ == 2) && (__GNUC_MINOR__ == 95))
using boost::put;
#endif
key_type key = any_cast<key_type>(in_key);
if (in_value.type() == typeid(value_type)) {
#if defined(__GNUC__) && (__GNUC__ == 2) && (__GNUC_MINOR__ == 95)
boost::put(property_map, key, any_cast<value_type>(in_value));
#else
put(property_map, key, any_cast<value_type>(in_value));
#endif
} else {
// if in_value is an empty string, put a default constructed value_type.
std::string v = any_cast<std::string>(in_value);
if (v.empty()) {
#if defined(__GNUC__) && (__GNUC__ == 2) && (__GNUC_MINOR__ == 95)
boost::put(property_map, key, value_type());
#else
put(property_map, key, value_type());
#endif
} else {
#if defined(__GNUC__) && (__GNUC__ == 2) && (__GNUC_MINOR__ == 95)
boost::put(property_map, key, detail::read_value<value_type>(v));
#else
put(property_map, key, detail::read_value<value_type>(v));
#endif
}
}
}
void do_put(const any&, const any&, mpl::bool_<false>)
{
BOOST_THROW_EXCEPTION(dynamic_const_put_error());
}
public:
explicit dynamic_property_map_adaptor(const PropertyMap& property_map)
: property_map(property_map) { }
virtual boost::any get(const any& key)
{
#if defined(__GNUC__) && (__GNUC__ == 2) && (__GNUC_MINOR__ == 95)
return boost::get(property_map, any_cast<key_type>(key));
#else
using boost::get;
return get(property_map, any_cast<key_type>(key));
#endif
}
virtual std::string get_string(const any& key)
{
#if defined(__GNUC__) && (__GNUC__ == 2) && (__GNUC_MINOR__ == 95)
std::ostringstream out;
out << boost::get(property_map, any_cast<key_type>(key));
return out.str();
#else
using boost::get;
std::ostringstream out;
out << get(property_map, any_cast<key_type>(key));
return out.str();
#endif
}
virtual void put(const any& in_key, const any& in_value)
{
do_put(in_key, in_value,
mpl::bool_<(is_convertible<category*,
writable_property_map_tag*>::value)>());
}
virtual const std::type_info& key() const { return typeid(key_type); }
virtual const std::type_info& value() const { return typeid(value_type); }
PropertyMap& base() { return property_map; }
const PropertyMap& base() const { return property_map; }
private:
PropertyMap property_map;
};
} // namespace detail
//
// dynamic_properties -
// container for dynamic property maps
//
struct dynamic_properties
{
typedef std::multimap<std::string, boost::shared_ptr<dynamic_property_map> >
property_maps_type;
typedef boost::function3<boost::shared_ptr<dynamic_property_map>,
const std::string&,
const boost::any&,
const boost::any&> generate_fn_type;
public:
typedef property_maps_type::iterator iterator;
typedef property_maps_type::const_iterator const_iterator;
dynamic_properties() : generate_fn() { }
dynamic_properties(const generate_fn_type& g) : generate_fn(g) {}
~dynamic_properties() {}
template<typename PropertyMap>
dynamic_properties&
property(const std::string& name, PropertyMap property_map)
{
// Tbd: exception safety
boost::shared_ptr<dynamic_property_map> pm(
new detail::dynamic_property_map_adaptor<PropertyMap>(property_map));
property_maps.insert(property_maps_type::value_type(name, pm));
return *this;
}
iterator begin() { return property_maps.begin(); }
const_iterator begin() const { return property_maps.begin(); }
iterator end() { return property_maps.end(); }
const_iterator end() const { return property_maps.end(); }
iterator lower_bound(const std::string& name)
{ return property_maps.lower_bound(name); }
const_iterator lower_bound(const std::string& name) const
{ return property_maps.lower_bound(name); }
void
insert(const std::string& name, boost::shared_ptr<dynamic_property_map> pm)
{
property_maps.insert(property_maps_type::value_type(name, pm));
}
template<typename Key, typename Value>
boost::shared_ptr<dynamic_property_map>
generate(const std::string& name, const Key& key, const Value& value)
{
if(!generate_fn) {
BOOST_THROW_EXCEPTION(property_not_found(name));
} else {
return generate_fn(name,key,value);
}
}
private:
property_maps_type property_maps;
generate_fn_type generate_fn;
};
template<typename Key, typename Value>
bool
put(const std::string& name, dynamic_properties& dp, const Key& key,
const Value& value)
{
for (dynamic_properties::iterator i = dp.lower_bound(name);
i != dp.end() && i->first == name; ++i) {
if (i->second->key() == typeid(key)) {
i->second->put(key, value);
return true;
}
}
boost::shared_ptr<dynamic_property_map> new_map = dp.generate(name, key, value);
if (new_map.get()) {
new_map->put(key, value);
dp.insert(name, new_map);
return true;
} else {
return false;
}
}
#ifndef BOOST_NO_EXPLICIT_FUNCTION_TEMPLATE_ARGUMENTS
template<typename Value, typename Key>
Value
get(const std::string& name, const dynamic_properties& dp, const Key& key)
{
for (dynamic_properties::const_iterator i = dp.lower_bound(name);
i != dp.end() && i->first == name; ++i) {
if (i->second->key() == typeid(key))
return any_cast<Value>(i->second->get(key));
}
BOOST_THROW_EXCEPTION(dynamic_get_failure(name));
}
#endif
template<typename Value, typename Key>
Value
get(const std::string& name, const dynamic_properties& dp, const Key& key, type<Value>)
{
for (dynamic_properties::const_iterator i = dp.lower_bound(name);
i != dp.end() && i->first == name; ++i) {
if (i->second->key() == typeid(key))
return any_cast<Value>(i->second->get(key));
}
BOOST_THROW_EXCEPTION(dynamic_get_failure(name));
}
template<typename Key>
std::string
get(const std::string& name, const dynamic_properties& dp, const Key& key)
{
for (dynamic_properties::const_iterator i = dp.lower_bound(name);
i != dp.end() && i->first == name; ++i) {
if (i->second->key() == typeid(key))
return i->second->get_string(key);
}
BOOST_THROW_EXCEPTION(dynamic_get_failure(name));
}
// The easy way to ignore properties.
inline
boost::shared_ptr<boost::dynamic_property_map>
ignore_other_properties(const std::string&,
const boost::any&,
const boost::any&) {
return boost::shared_ptr<boost::dynamic_property_map>();
}
} // namespace boost
#endif // DYNAMIC_PROPERTY_MAP_RG09302004_HPP

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// Copyright 2004 The Trustees of Indiana University.
// Use, modification and distribution is subject to the Boost Software
// License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// Authors: Douglas Gregor
// Andrew Lumsdaine
#ifndef BOOST_PARALLEL_CACHING_PROPERTY_MAP_HPP
#define BOOST_PARALLEL_CACHING_PROPERTY_MAP_HPP
#ifndef BOOST_GRAPH_USE_MPI
#error "Parallel BGL files should not be included unless <boost/graph/use_mpi.hpp> has been included"
#endif
#include <boost/property_map/property_map.hpp>
namespace boost {
// This probably doesn't belong here
template<typename Key, typename Value>
inline void local_put(dummy_property_map, const Key&, const Value&) {}
namespace parallel {
/** Property map that caches values placed in it but does not
* broadcast values to remote processors. This class template is
* meant as an adaptor for @ref distributed_property_map that
* suppresses communication in the event of a remote @c put operation
* by mapping it to a local @c put operation.
*
* @todo Find a better name for @ref caching_property_map
*/
template<typename PropertyMap>
class caching_property_map
{
public:
typedef typename property_traits<PropertyMap>::key_type key_type;
typedef typename property_traits<PropertyMap>::value_type value_type;
typedef typename property_traits<PropertyMap>::reference reference;
typedef typename property_traits<PropertyMap>::category category;
explicit caching_property_map(const PropertyMap& property_map)
: property_map(property_map) {}
PropertyMap& base() { return property_map; }
const PropertyMap& base() const { return property_map; }
template<typename Reduce>
void set_reduce(const Reduce& reduce)
{ property_map.set_reduce(reduce); }
void reset() { property_map.reset(); }
#if 0
reference operator[](const key_type& key) const
{
return property_map[key];
}
#endif
private:
PropertyMap property_map;
};
template<typename PropertyMap, typename Key>
inline typename caching_property_map<PropertyMap>::value_type
get(const caching_property_map<PropertyMap>& pm, const Key& key)
{ return get(pm.base(), key); }
template<typename PropertyMap, typename Key, typename Value>
inline void
local_put(const caching_property_map<PropertyMap>& pm, const Key& key,
const Value& value)
{ local_put(pm.base(), key, value); }
template<typename PropertyMap, typename Key, typename Value>
inline void
cache(const caching_property_map<PropertyMap>& pm, const Key& key,
const Value& value)
{ cache(pm.base(), key, value); }
template<typename PropertyMap, typename Key, typename Value>
inline void
put(const caching_property_map<PropertyMap>& pm, const Key& key,
const Value& value)
{ local_put(pm.base(), key, value); }
template<typename PropertyMap>
inline caching_property_map<PropertyMap>
make_caching_property_map(const PropertyMap& pm)
{ return caching_property_map<PropertyMap>(pm); }
} } // end namespace boost::parallel
#endif // BOOST_PARALLEL_CACHING_PROPERTY_MAP_HPP

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// Copyright (C) 2004-2008 The Trustees of Indiana University.
// Use, modification and distribution is subject to the Boost Software
// License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// Authors: Douglas Gregor
// Nick Edmonds
// Andrew Lumsdaine
// The placement of this #include probably looks very odd relative to
// the #ifndef/#define pair below. However, this placement is
// extremely important to allow the various property map headers to be
// included in any order.
#include <boost/property_map/property_map.hpp>
#ifndef BOOST_PARALLEL_DISTRIBUTED_PROPERTY_MAP_HPP
#define BOOST_PARALLEL_DISTRIBUTED_PROPERTY_MAP_HPP
#ifndef BOOST_GRAPH_USE_MPI
#error "Parallel BGL files should not be included unless <boost/graph/use_mpi.hpp> has been included"
#endif
#include <boost/assert.hpp>
#include <boost/type_traits/is_base_and_derived.hpp>
#include <boost/shared_ptr.hpp>
#include <boost/weak_ptr.hpp>
#include <boost/optional.hpp>
#include <boost/graph/parallel/process_group.hpp>
#include <boost/graph/detail/edge.hpp>
#include <boost/function/function1.hpp>
#include <vector>
#include <set>
#include <boost/graph/parallel/basic_reduce.hpp>
#include <boost/graph/parallel/detail/untracked_pair.hpp>
#include <boost/type_traits/is_same.hpp>
#include <boost/property_map/parallel/local_property_map.hpp>
#include <map>
#include <boost/version.hpp>
#include <boost/graph/distributed/unsafe_serialize.hpp>
#include <boost/multi_index_container.hpp>
#include <boost/multi_index/hashed_index.hpp>
#include <boost/multi_index/member.hpp>
#include <boost/multi_index/sequenced_index.hpp>
// Serialization functions for constructs we use
#include <boost/serialization/utility.hpp>
namespace boost { namespace parallel {
using boost::graph::parallel::trigger_receive_context;
namespace detail {
/**************************************************************************
* Metafunction that degrades an Lvalue Property Map category tag to
* a Read Write Property Map category tag.
**************************************************************************/
template<bool IsLvaluePropertyMap>
struct make_nonlvalue_property_map
{
template<typename T> struct apply { typedef T type; };
};
template<>
struct make_nonlvalue_property_map<true>
{
template<typename>
struct apply
{
typedef read_write_property_map_tag type;
};
};
/**************************************************************************
* Performs a "put" on a property map so long as the property map is
* a Writable Property Map or a mutable Lvalue Property Map. This
* is required because the distributed property map's message
* handler handles "put" messages even for a const property map,
* although receipt of a "put" message is ill-formed.
**************************************************************************/
template<bool IsLvaluePropertyMap>
struct maybe_put_in_lvalue_pm
{
template<typename PropertyMap, typename Key, typename Value>
static inline void
do_put(PropertyMap, const Key&, const Value&)
{ BOOST_ASSERT(false); }
};
template<>
struct maybe_put_in_lvalue_pm<true>
{
template<typename PropertyMap, typename Key, typename Value>
static inline void
do_put(PropertyMap pm, const Key& key, const Value& value)
{
using boost::put;
put(pm, key, value);
}
};
template<typename PropertyMap, typename Key, typename Value>
inline void
maybe_put_impl(PropertyMap pm, const Key& key, const Value& value,
writable_property_map_tag)
{
using boost::put;
put(pm, key, value);
}
template<typename PropertyMap, typename Key, typename Value>
inline void
maybe_put_impl(PropertyMap pm, const Key& key, const Value& value,
lvalue_property_map_tag)
{
typedef typename property_traits<PropertyMap>::value_type value_type;
typedef typename property_traits<PropertyMap>::reference reference;
// DPG TBD: Some property maps are improperly characterized as
// lvalue_property_maps, when in fact they do not provide true
// references. The most typical example is those property maps
// built from vector<bool> and its iterators, which deal with
// proxies. We don't want to mischaracterize these as not having a
// "put" operation, so we only consider an lvalue_property_map as
// constant if its reference is const value_type&. In fact, this
// isn't even quite correct (think of a
// vector<bool>::const_iterator), but at present C++ doesn't
// provide us with any alternatives.
typedef is_same<const value_type&, reference> is_constant;
maybe_put_in_lvalue_pm<(!is_constant::value)>::do_put(pm, key, value);
}
template<typename PropertyMap, typename Key, typename Value>
inline void
maybe_put_impl(PropertyMap, const Key&, const Value&, ...)
{ BOOST_ASSERT(false); }
template<typename PropertyMap, typename Key, typename Value>
inline void
maybe_put(PropertyMap pm, const Key& key, const Value& value)
{
maybe_put_impl(pm, key, value,
typename property_traits<PropertyMap>::category());
}
} // end namespace detail
/** The consistency model used by the distributed property map. */
enum consistency_model {
cm_forward = 1 << 0,
cm_backward = 1 << 1,
cm_bidirectional = cm_forward | cm_backward,
cm_flush = 1 << 2,
cm_reset = 1 << 3,
cm_clear = 1 << 4
};
/** Distributed property map adaptor.
*
* The distributed property map adaptor is a property map whose
* stored values are distributed across multiple non-overlapping
* memory spaces on different processes. Values local to the current
* process are stored within a local property map and may be
* immediately accessed via @c get and @c put. Values stored on
* remote processes may also be access via @c get and @c put, but the
* behavior differs slightly:
*
* - @c put operations update a local ghost cell and send a "put"
* message to the process that owns the value. The owner is free to
* update its own "official" value or may ignore the put request.
*
* - @c get operations returns the contents of the local ghost
* cell. If no ghost cell is available, one is created using the
* default value provided by the "reduce" operation. See, e.g.,
* @ref basic_reduce and @ref property_reduce.
*
* Using distributed property maps requires a bit more care than using
* local, sequential property maps. While the syntax and semantics are
* similar, distributed property maps may contain out-of-date
* information that can only be guaranteed to be synchronized by
* calling the @ref synchronize function in all processes.
*
* To address the issue of out-of-date values, distributed property
* maps are supplied with a reduction operation. The reduction
* operation has two roles:
*
* -# When a value is needed for a remote key but no value is
* immediately available, the reduction operation provides a
* suitable default. For instance, a distributed property map
* storing distances may have a reduction operation that returns
* an infinite value as the default, whereas a distributed
* property map for vertex colors may return white as the
* default.
*
* -# When a value is received from a remote process, the process
* owning the key associated with that value must determine which
* value---the locally stored value, the value received from a
* remote process, or some combination of the two---will be
* stored as the "official" value in the property map. The
* reduction operation transforms the local and remote values
* into the "official" value to be stored.
*
* @tparam ProcessGroup the type of the process group over which the
* property map is distributed and is also the medium for
* communication.
*
* @tparam StorageMap the type of the property map that will
* store values for keys local to this processor. The @c value_type of
* this property map will become the @c value_type of the distributed
* property map. The distributed property map models the same property
* map concepts as the @c LocalPropertyMap, with one exception: a
* distributed property map cannot be an LvaluePropertyMap (because
* remote values are not addressable), and is therefore limited to
* ReadWritePropertyMap.
*/
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
class distributed_property_map
{
public:
/// The key type of the property map.
typedef typename property_traits<GlobalMap>::key_type key_type;
/// The value type of the property map.
typedef typename property_traits<StorageMap>::value_type value_type;
typedef typename property_traits<StorageMap>::reference reference;
typedef ProcessGroup process_group_type;
private:
typedef distributed_property_map self_type;
typedef typename property_traits<StorageMap>::category local_category;
typedef typename property_traits<StorageMap>::key_type local_key_type;
typedef typename property_traits<GlobalMap>::value_type owner_local_pair;
typedef typename ProcessGroup::process_id_type process_id_type;
enum property_map_messages {
/** A request to store a value in a property map. The message
* contains a std::pair<key, data>.
*/
property_map_put,
/** A request to retrieve a particular value in a property
* map. The message contains a key. The owner of that key will
* reply with a value.
*/
property_map_get,
/** A request to update values stored on a remote processor. The
* message contains a vector of keys for which the source
* requests updated values. This message will only be transmitted
* during synchronization.
*/
property_map_multiget,
/** A request to store values in a ghost cell. This message
* contains a vector of key/value pairs corresponding to the
* sequence of keys sent to the source processor.
*/
property_map_multiget_reply,
/** The payload containing a vector of local key-value pairs to be
* put into the remote property map. A key-value std::pair will be
* used to store each local key-value pair.
*/
property_map_multiput
};
// Code from Joaquín M López Muñoz to work around unusual implementation of
// std::pair in VC++ 10:
template<typename First,typename Second>
class pair_first_extractor {
typedef std::pair<First,Second> value_type;
public:
typedef First result_type;
const result_type& operator()(const value_type& x) const {
return x.first;
}
result_type& operator()(value_type& x) const {
return x.first;
}
};
public:
/// The type of the ghost cells
typedef multi_index::multi_index_container<
std::pair<key_type, value_type>,
multi_index::indexed_by<
multi_index::sequenced<>,
multi_index::hashed_unique<
pair_first_extractor<key_type, value_type>
>
>
> ghost_cells_type;
/// Iterator into the ghost cells
typedef typename ghost_cells_type::iterator iterator;
/// Key-based index into the ghost cells
typedef typename ghost_cells_type::template nth_index<1>::type
ghost_cells_key_index_type;
/// Iterator into the ghost cells (by key)
typedef typename ghost_cells_key_index_type::iterator key_iterator;
/** The property map category. A distributed property map cannot be
* an Lvalue Property Map, because values on remote processes cannot
* be addresses.
*/
typedef typename detail::make_nonlvalue_property_map<
(is_base_and_derived<lvalue_property_map_tag, local_category>::value
|| is_same<lvalue_property_map_tag, local_category>::value)>
::template apply<local_category>::type category;
/** Default-construct a distributed property map. This function
* creates an initialized property map that must be assigned to a
* valid value before being used. It is only provided here because
* property maps must be Default Constructible.
*/
distributed_property_map() {}
/** Construct a distributed property map. Builds a distributed
* property map communicating over the given process group and using
* the given local property map for storage. Since no reduction
* operation is provided, the default reduction operation @c
* basic_reduce<value_type> is used.
*/
distributed_property_map(const ProcessGroup& pg, const GlobalMap& global,
const StorageMap& pm)
: data(new data_t(pg, global, pm, basic_reduce<value_type>(), false))
{
typedef handle_message<basic_reduce<value_type> > Handler;
data->ghost_cells.reset(new ghost_cells_type());
Handler handler(data);
data->process_group.replace_handler(handler, true);
data->process_group.template get_receiver<Handler>()
->setup_triggers(data->process_group);
}
/** Construct a distributed property map. Builds a distributed
* property map communicating over the given process group and using
* the given local property map for storage. The given @p reduce
* parameter is used as the reduction operation.
*/
template<typename Reduce>
distributed_property_map(const ProcessGroup& pg, const GlobalMap& global,
const StorageMap& pm,
const Reduce& reduce);
~distributed_property_map();
/// Set the reduce operation of the distributed property map.
template<typename Reduce>
void set_reduce(const Reduce& reduce);
// Set the consistency model for the distributed property map
void set_consistency_model(int model);
// Get the consistency model
int get_consistency_model() const { return data->model; }
// Set the maximum number of ghost cells that we are allowed to
// maintain. If 0, all ghost cells will be retained.
void set_max_ghost_cells(std::size_t max_ghost_cells);
// Clear out all ghost cells
void clear();
// Reset the values in all ghost cells to the default value
void reset();
// Flush all values destined for remote processors
void flush();
reference operator[](const key_type& key) const
{
owner_local_pair p = get(data->global, key);
if (p.first == process_id(data->process_group)) {
return data->storage[p.second];
} else {
return cell(key);
}
}
process_group_type process_group() const
{
return data->process_group.base();
}
StorageMap& base() { return data->storage; }
const StorageMap& base() const { return data->storage; }
/** Sends a "put" request.
* \internal
*
*/
void
request_put(process_id_type p, const key_type& k, const value_type& v) const
{
send(data->process_group, p, property_map_put,
boost::parallel::detail::make_untracked_pair(k, v));
}
/** Access the ghost cell for the given key.
* \internal
*/
value_type& cell(const key_type& k, bool request_if_missing = true) const;
/** Perform synchronization
* \internal
*/
void do_synchronize();
const GlobalMap& global() const { return data->global; }
GlobalMap& global() { return data->global; }
struct data_t
{
data_t(const ProcessGroup& pg, const GlobalMap& global,
const StorageMap& pm, const function1<value_type, key_type>& dv,
bool has_default_resolver)
: process_group(pg), global(global), storage(pm),
ghost_cells(), max_ghost_cells(1000000), get_default_value(dv),
has_default_resolver(has_default_resolver), model(cm_forward) { }
/// The process group
ProcessGroup process_group;
/// A mapping from the keys of this property map to the global
/// descriptor.
GlobalMap global;
/// Local property map
StorageMap storage;
/// The ghost cells
shared_ptr<ghost_cells_type> ghost_cells;
/// The maximum number of ghost cells we are permitted to hold. If
/// zero, we are permitted to have an infinite number of ghost
/// cells.
std::size_t max_ghost_cells;
/// Default value for remote ghost cells, as defined by the
/// reduction operation.
function1<value_type, key_type> get_default_value;
/// True if this resolver is the "default" resolver, meaning that
/// we should not be able to get() a default value; it needs to be
/// request()ed first.
bool has_default_resolver;
// Current consistency model
int model;
// Function that resets all of the ghost cells to their default
// values. It knows the type of the resolver, so we can eliminate
// a large number of calls through function pointers.
void (data_t::*reset)();
// Clear out all ghost cells
void clear();
// Flush all values destined for remote processors
void flush();
// Send out requests to "refresh" the values of ghost cells that
// we're holding.
void refresh_ghost_cells();
private:
template<typename Resolver> void do_reset();
friend class distributed_property_map;
};
friend struct data_t;
shared_ptr<data_t> data;
private:
// Prunes the least recently used ghost cells until we have @c
// max_ghost_cells or fewer ghost cells.
void prune_ghost_cells() const;
/** Handles incoming messages.
*
* This function object is responsible for handling all incoming
* messages for the distributed property map.
*/
template<typename Reduce>
struct handle_message
{
explicit handle_message(const shared_ptr<data_t>& data,
const Reduce& reduce = Reduce())
: data_ptr(data), reduce(reduce) { }
void operator()(process_id_type source, int tag);
/// Individual message handlers
void
handle_put(int source, int tag,
const boost::parallel::detail::untracked_pair<key_type, value_type>& data,
trigger_receive_context);
value_type
handle_get(int source, int tag, const key_type& data,
trigger_receive_context);
void
handle_multiget(int source, int tag,
const std::vector<key_type>& data,
trigger_receive_context);
void
handle_multiget_reply
(int source, int tag,
const std::vector<boost::parallel::detail::untracked_pair<key_type, value_type> >& msg,
trigger_receive_context);
void
handle_multiput
(int source, int tag,
const std::vector<unsafe_pair<local_key_type, value_type> >& data,
trigger_receive_context);
void setup_triggers(process_group_type& pg);
private:
weak_ptr<data_t> data_ptr;
Reduce reduce;
};
/* Sets up the next stage in a multi-stage synchronization, for
bidirectional consistency. */
struct on_synchronize
{
explicit on_synchronize(const shared_ptr<data_t>& data) : data_ptr(data) { }
void operator()();
private:
weak_ptr<data_t> data_ptr;
};
};
/* An implementation helper macro for the common case of naming
distributed property maps with all of the normal template
parameters. */
#define PBGL_DISTRIB_PMAP \
distributed_property_map<ProcessGroup, GlobalMap, StorageMap>
/* Request that the value for the given remote key be retrieved in
the next synchronization round. */
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
inline void
request(const PBGL_DISTRIB_PMAP& pm,
typename PBGL_DISTRIB_PMAP::key_type const& key)
{
if (get(pm.data->global, key).first != process_id(pm.data->process_group))
pm.cell(key, false);
}
/** Get the value associated with a particular key. Retrieves the
* value associated with the given key. If the key denotes a
* locally-owned object, it returns the value from the local property
* map; if the key denotes a remotely-owned object, retrieves the
* value of the ghost cell for that key, which may be the default
* value provided by the reduce operation.
*
* Complexity: For a local key, O(1) get operations on the underlying
* property map. For a non-local key, O(1) accesses to the ghost cells.
*/
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
inline
typename PBGL_DISTRIB_PMAP::value_type
get(const PBGL_DISTRIB_PMAP& pm,
typename PBGL_DISTRIB_PMAP::key_type const& key)
{
using boost::get;
typename property_traits<GlobalMap>::value_type p =
get(pm.data->global, key);
if (p.first == process_id(pm.data->process_group)) {
return get(pm.data->storage, p.second);
} else {
return pm.cell(key);
}
}
/** Put a value associated with the given key into the property map.
* When the key denotes a locally-owned object, this operation updates
* the underlying local property map. Otherwise, the local ghost cell
* is updated and a "put" message is sent to the processor owning this
* key.
*
* Complexity: For a local key, O(1) put operations on the underlying
* property map. For a nonlocal key, O(1) accesses to the ghost cells
* and will send O(1) messages of size O(sizeof(key) + sizeof(value)).
*/
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void
put(const PBGL_DISTRIB_PMAP& pm,
typename PBGL_DISTRIB_PMAP::key_type const & key,
typename PBGL_DISTRIB_PMAP::value_type const & value)
{
using boost::put;
typename property_traits<GlobalMap>::value_type p =
get(pm.data->global, key);
if (p.first == process_id(pm.data->process_group)) {
put(pm.data->storage, p.second, value);
} else {
if (pm.data->model & cm_forward)
pm.request_put(p.first, key, value);
pm.cell(key, false) = value;
}
}
/** Put a value associated with a given key into the local view of the
* property map. This operation is equivalent to @c put, but with one
* exception: no message will be sent to the owning processor in the
* case of a remote update. The effect is that any value written via
* @c local_put for a remote key may be overwritten in the next
* synchronization round.
*/
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void
local_put(const PBGL_DISTRIB_PMAP& pm,
typename PBGL_DISTRIB_PMAP::key_type const & key,
typename PBGL_DISTRIB_PMAP::value_type const & value)
{
using boost::put;
typename property_traits<GlobalMap>::value_type p =
get(pm.data->global, key);
if (p.first == process_id(pm.data->process_group))
put(pm.data->storage, p.second, value);
else pm.cell(key, false) = value;
}
/** Cache the value associated with the given remote key. If the key
* is local, ignore the operation. */
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
inline void
cache(const PBGL_DISTRIB_PMAP& pm,
typename PBGL_DISTRIB_PMAP::key_type const & key,
typename PBGL_DISTRIB_PMAP::value_type const & value)
{
typename ProcessGroup::process_id_type id = get(pm.data->global, key).first;
if (id != process_id(pm.data->process_group)) pm.cell(key, false) = value;
}
/// Synchronize the property map.
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void
synchronize(PBGL_DISTRIB_PMAP& pm)
{
pm.do_synchronize();
}
/// Create a distributed property map.
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
inline distributed_property_map<ProcessGroup, GlobalMap, StorageMap>
make_distributed_property_map(const ProcessGroup& pg, GlobalMap global,
StorageMap storage)
{
typedef distributed_property_map<ProcessGroup, GlobalMap, StorageMap>
result_type;
return result_type(pg, global, storage);
}
/**
* \overload
*/
template<typename ProcessGroup, typename GlobalMap, typename StorageMap,
typename Reduce>
inline distributed_property_map<ProcessGroup, GlobalMap, StorageMap>
make_distributed_property_map(const ProcessGroup& pg, GlobalMap global,
StorageMap storage, Reduce reduce)
{
typedef distributed_property_map<ProcessGroup, GlobalMap, StorageMap>
result_type;
return result_type(pg, global, storage, reduce);
}
} } // end namespace boost::parallel
// Boost's functional/hash
namespace boost {
template<typename D, typename V>
struct hash<boost::detail::edge_desc_impl<D, V> >
{
std::size_t operator()(const boost::detail::edge_desc_impl<D, V> & x) const
{ return hash_value(x.get_property()); }
};
}
#include <boost/property_map/parallel/impl/distributed_property_map.ipp>
#undef PBGL_DISTRIB_PMAP
#endif // BOOST_PARALLEL_DISTRIBUTED_PROPERTY_MAP_HPP

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// Copyright 2005 The Trustees of Indiana University.
// Use, modification and distribution is subject to the Boost Software
// License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// Authors: Douglas Gregor
// Andrew Lumsdaine
#ifndef BOOST_PARALLEL_GLOBAL_INDEX_MAP_HPP
#define BOOST_PARALLEL_GLOBAL_INDEX_MAP_HPP
#ifndef BOOST_GRAPH_USE_MPI
#error "Parallel BGL files should not be included unless <boost/graph/use_mpi.hpp> has been included"
#endif
#include <boost/property_map/property_map.hpp>
#include <vector>
#include <boost/shared_ptr.hpp>
namespace boost { namespace parallel {
template<typename IndexMap, typename GlobalMap>
class global_index_map
{
public:
typedef typename property_traits<IndexMap>::key_type key_type;
typedef typename property_traits<IndexMap>::value_type value_type;
typedef value_type reference;
typedef readable_property_map_tag category;
template<typename ProcessGroup>
global_index_map(ProcessGroup pg, value_type num_local_indices,
IndexMap index_map, GlobalMap global)
: index_map(index_map), global(global)
{
typedef typename ProcessGroup::process_id_type process_id_type;
starting_index.reset(new std::vector<value_type>(num_processes(pg) + 1));
send(pg, 0, 0, num_local_indices);
synchronize(pg);
// Populate starting_index in all processes
if (process_id(pg) == 0) {
(*starting_index)[0] = 0;
for (process_id_type src = 0; src < num_processes(pg); ++src) {
value_type n;
receive(pg, src, 0, n);
(*starting_index)[src + 1] = (*starting_index)[src] + n;
}
for (process_id_type dest = 1; dest < num_processes(pg); ++dest)
send(pg, dest, 1, &starting_index->front(), num_processes(pg));
synchronize(pg);
} else {
synchronize(pg);
receive(pg, 0, 1, &starting_index->front(), num_processes(pg));
}
}
friend inline value_type
get(const global_index_map& gim, const key_type& x)
{
using boost::get;
return (*gim.starting_index)[get(gim.global, x).first]
+ get(gim.index_map, x);
}
private:
shared_ptr<std::vector<value_type> > starting_index;
IndexMap index_map;
GlobalMap global;
};
} } // end namespace boost::parallel
#endif // BOOST_PARALLEL_GLOBAL_INDEX_MAP_HPP

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// Copyright (C) 2004-2006 The Trustees of Indiana University.
// Use, modification and distribution is subject to the Boost Software
// License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// Authors: Douglas Gregor
// Nick Edmonds
// Andrew Lumsdaine
#include <boost/assert.hpp>
#include <boost/property_map/parallel/distributed_property_map.hpp>
#include <boost/graph/parallel/detail/untracked_pair.hpp>
#include <boost/type_traits/is_base_and_derived.hpp>
#include <boost/bind.hpp>
#include <boost/graph/parallel/simple_trigger.hpp>
#ifndef BOOST_GRAPH_USE_MPI
#error "Parallel BGL files should not be included unless <boost/graph/use_mpi.hpp> has been included"
#endif
namespace boost { namespace parallel {
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
PBGL_DISTRIB_PMAP
::distributed_property_map(const ProcessGroup& pg, const GlobalMap& global,
const StorageMap& pm, const Reduce& reduce)
: data(new data_t(pg, global, pm, reduce, Reduce::non_default_resolver))
{
typedef handle_message<Reduce> Handler;
data->ghost_cells.reset(new ghost_cells_type());
data->reset = &data_t::template do_reset<Reduce>;
data->process_group.replace_handler(Handler(data, reduce));
data->process_group.template get_receiver<Handler>()
->setup_triggers(data->process_group);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
PBGL_DISTRIB_PMAP::~distributed_property_map() { }
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
void
PBGL_DISTRIB_PMAP::set_reduce(const Reduce& reduce)
{
typedef handle_message<Reduce> Handler;
data->process_group.replace_handler(Handler(data, reduce));
Handler* handler = data->process_group.template get_receiver<Handler>();
BOOST_ASSERT(handler);
handler->setup_triggers(data->process_group);
data->get_default_value = reduce;
data->has_default_resolver = Reduce::non_default_resolver;
int model = data->model;
data->reset = &data_t::template do_reset<Reduce>;
set_consistency_model(model);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::prune_ghost_cells() const
{
if (data->max_ghost_cells == 0)
return;
while (data->ghost_cells->size() > data->max_ghost_cells) {
// Evict the last ghost cell
if (data->model & cm_flush) {
// We need to flush values when we evict them.
boost::parallel::detail::untracked_pair<key_type, value_type> const& victim
= data->ghost_cells->back();
send(data->process_group, get(data->global, victim.first).first,
property_map_put, victim);
}
// Actually remove the ghost cell
data->ghost_cells->pop_back();
}
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
typename PBGL_DISTRIB_PMAP::value_type&
PBGL_DISTRIB_PMAP::cell(const key_type& key, bool request_if_missing) const
{
// Index by key
ghost_cells_key_index_type const& key_index
= data->ghost_cells->template get<1>();
// Search for the ghost cell by key, and project back to the sequence
iterator ghost_cell
= data->ghost_cells->template project<0>(key_index.find(key));
if (ghost_cell == data->ghost_cells->end()) {
value_type value;
if (data->has_default_resolver)
// Since we have a default resolver, use it to create a default
// value for this ghost cell.
value = data->get_default_value(key);
else if (request_if_missing)
// Request the actual value of this key from its owner
send_oob_with_reply(data->process_group, get(data->global, key).first,
property_map_get, key, value);
else
value = value_type();
// Create a ghost cell containing the new value
ghost_cell
= data->ghost_cells->push_front(std::make_pair(key, value)).first;
// If we need to, prune the ghost cells
if (data->max_ghost_cells > 0)
prune_ghost_cells();
} else if (data->max_ghost_cells > 0)
// Put this cell at the beginning of the MRU list
data->ghost_cells->relocate(data->ghost_cells->begin(), ghost_cell);
return const_cast<value_type&>(ghost_cell->second);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
void
PBGL_DISTRIB_PMAP
::handle_message<Reduce>::operator()(process_id_type source, int tag)
{
BOOST_ASSERT(false);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
void
PBGL_DISTRIB_PMAP::handle_message<Reduce>::
handle_put(int /*source*/, int /*tag*/,
const boost::parallel::detail::untracked_pair<key_type, value_type>& req, trigger_receive_context)
{
using boost::get;
shared_ptr<data_t> data(data_ptr);
owner_local_pair p = get(data->global, req.first);
BOOST_ASSERT(p.first == process_id(data->process_group));
detail::maybe_put(data->storage, p.second,
reduce(req.first,
get(data->storage, p.second),
req.second));
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
typename PBGL_DISTRIB_PMAP::value_type
PBGL_DISTRIB_PMAP::handle_message<Reduce>::
handle_get(int source, int /*tag*/, const key_type& key,
trigger_receive_context)
{
using boost::get;
shared_ptr<data_t> data(data_ptr);
BOOST_ASSERT(data);
owner_local_pair p = get(data->global, key);
return get(data->storage, p.second);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
void
PBGL_DISTRIB_PMAP::handle_message<Reduce>::
handle_multiget(int source, int tag, const std::vector<key_type>& keys,
trigger_receive_context)
{
shared_ptr<data_t> data(data_ptr);
BOOST_ASSERT(data);
typedef boost::parallel::detail::untracked_pair<key_type, value_type> key_value;
std::vector<key_value> results;
std::size_t n = keys.size();
results.reserve(n);
using boost::get;
for (std::size_t i = 0; i < n; ++i) {
local_key_type local_key = get(data->global, keys[i]).second;
results.push_back(key_value(keys[i], get(data->storage, local_key)));
}
send(data->process_group, source, property_map_multiget_reply, results);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
void
PBGL_DISTRIB_PMAP::handle_message<Reduce>::
handle_multiget_reply
(int source, int tag,
const std::vector<boost::parallel::detail::untracked_pair<key_type, value_type> >& msg,
trigger_receive_context)
{
shared_ptr<data_t> data(data_ptr);
BOOST_ASSERT(data);
// Index by key
ghost_cells_key_index_type const& key_index
= data->ghost_cells->template get<1>();
std::size_t n = msg.size();
for (std::size_t i = 0; i < n; ++i) {
// Search for the ghost cell by key, and project back to the sequence
iterator position
= data->ghost_cells->template project<0>(key_index.find(msg[i].first));
if (position != data->ghost_cells->end())
const_cast<value_type&>(position->second) = msg[i].second;
}
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
void
PBGL_DISTRIB_PMAP::handle_message<Reduce>::
handle_multiput
(int source, int tag,
const std::vector<unsafe_pair<local_key_type, value_type> >& values,
trigger_receive_context)
{
using boost::get;
shared_ptr<data_t> data(data_ptr);
BOOST_ASSERT(data);
std::size_t n = values.size();
for (std::size_t i = 0; i < n; ++i) {
local_key_type local_key = values[i].first;
value_type local_value = get(data->storage, local_key);
detail::maybe_put(data->storage, values[i].first,
reduce(values[i].first,
local_value,
values[i].second));
}
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Reduce>
void
PBGL_DISTRIB_PMAP::handle_message<Reduce>::
setup_triggers(process_group_type& pg)
{
using boost::graph::parallel::simple_trigger;
simple_trigger(pg, property_map_put, this, &handle_message::handle_put);
simple_trigger(pg, property_map_get, this, &handle_message::handle_get);
simple_trigger(pg, property_map_multiget, this,
&handle_message::handle_multiget);
simple_trigger(pg, property_map_multiget_reply, this,
&handle_message::handle_multiget_reply);
simple_trigger(pg, property_map_multiput, this,
&handle_message::handle_multiput);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void
PBGL_DISTRIB_PMAP
::on_synchronize::operator()()
{
int stage=0; // we only get called at the start now
shared_ptr<data_t> data(data_ptr);
BOOST_ASSERT(data);
// Determine in which stage backward consistency messages should be sent.
int backward_stage = -1;
if (data->model & cm_backward) {
if (data->model & cm_flush) backward_stage = 1;
else backward_stage = 0;
}
// Flush results in first stage
if (stage == 0 && data->model & cm_flush)
data->flush();
// Backward consistency
if (stage == backward_stage && !(data->model & (cm_clear | cm_reset)))
data->refresh_ghost_cells();
// Optionally clear results
if (data->model & cm_clear)
data->clear();
// Optionally reset results
if (data->model & cm_reset) {
if (data->reset) ((*data).*data->reset)();
}
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void
PBGL_DISTRIB_PMAP::set_consistency_model(int model)
{
data->model = model;
int stages = 1;
bool need_on_synchronize = (model != cm_forward);
// Backward consistency is a two-stage process.
if (model & cm_backward) {
if (model & cm_flush) stages = 3;
else stages = 2;
// For backward consistency to work, we absolutely cannot throw
// away any ghost cells.
data->max_ghost_cells = 0;
}
// attach the on_synchronize handler.
if (need_on_synchronize)
data->process_group.replace_on_synchronize_handler(on_synchronize(data));
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void
PBGL_DISTRIB_PMAP::set_max_ghost_cells(std::size_t max_ghost_cells)
{
if ((data->model & cm_backward) && max_ghost_cells > 0)
boost::throw_exception(std::runtime_error("distributed_property_map::set_max_ghost_cells: "
"cannot limit ghost-cell usage with a backward "
"consistency model"));
if (max_ghost_cells == 1)
// It is not safe to have only 1 ghost cell; the cell() method
// will fail.
max_ghost_cells = 2;
data->max_ghost_cells = max_ghost_cells;
prune_ghost_cells();
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::clear()
{
data->clear();
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::data_t::clear()
{
ghost_cells->clear();
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::reset()
{
if (data->reset) ((*data).*data->reset)();
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::flush()
{
data->flush();
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::data_t::refresh_ghost_cells()
{
using boost::get;
std::vector<std::vector<key_type> > keys;
keys.resize(num_processes(process_group));
// Collect the set of keys for which we will request values
for (iterator i = ghost_cells->begin(); i != ghost_cells->end(); ++i)
keys[get(global, i->first).first].push_back(i->first);
// Send multiget requests to each of the other processors
typedef typename ProcessGroup::process_size_type process_size_type;
process_size_type n = num_processes(process_group);
process_id_type id = process_id(process_group);
for (process_size_type p = (id + 1) % n ; p != id ; p = (p + 1) % n) {
if (!keys[p].empty())
send(process_group, p, property_map_multiget, keys[p]);
}
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::data_t::flush()
{
using boost::get;
int n = num_processes(process_group);
std::vector<std::vector<unsafe_pair<local_key_type, value_type> > > values;
values.resize(n);
// Collect all of the flushed values
for (iterator i = ghost_cells->begin(); i != ghost_cells->end(); ++i) {
std::pair<int, local_key_type> g = get(global, i->first);
values[g.first].push_back(std::make_pair(g.second, i->second));
}
// Transmit flushed values
for (int p = 0; p < n; ++p) {
if (!values[p].empty())
send(process_group, p, property_map_multiput, values[p]);
}
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
void PBGL_DISTRIB_PMAP::do_synchronize()
{
if (data->model & cm_backward) {
synchronize(data->process_group);
return;
}
// Request refreshes of the values of our ghost cells
data->refresh_ghost_cells();
// Allows all of the multigets to get to their destinations
synchronize(data->process_group);
// Allows all of the multiget responses to get to their destinations
synchronize(data->process_group);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
template<typename Resolver>
void PBGL_DISTRIB_PMAP::data_t::do_reset()
{
Resolver* resolver = get_default_value.template target<Resolver>();
BOOST_ASSERT(resolver);
for (iterator i = ghost_cells->begin(); i != ghost_cells->end(); ++i)
const_cast<value_type&>(i->second) = (*resolver)(i->first);
}
} } // end namespace boost::parallel

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// Copyright (C) 2004-2006 The Trustees of Indiana University.
// Use, modification and distribution is subject to the Boost Software
// License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// Authors: Douglas Gregor
// Andrew Lumsdaine
// The placement of this #include probably looks very odd relative to
// the #ifndef/#define pair below. However, this placement is
// extremely important to allow the various property map headers to be
// included in any order.
#include <boost/property_map/property_map.hpp>
#ifndef BOOST_PARALLEL_LOCAL_PROPERTY_MAP_HPP
#define BOOST_PARALLEL_LOCAL_PROPERTY_MAP_HPP
#ifndef BOOST_GRAPH_USE_MPI
#error "Parallel BGL files should not be included unless <boost/graph/use_mpi.hpp> has been included"
#endif
#include <boost/assert.hpp>
namespace boost {
/** Property map that accesses an underlying, local property map
* using a subset of the global keys.
*/
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
class local_property_map
{
typedef typename property_traits<GlobalMap>::value_type owner_local_pair;
public:
typedef ProcessGroup process_group_type;
typedef typename property_traits<StorageMap>::value_type value_type;
typedef typename property_traits<GlobalMap>::key_type key_type;
typedef typename property_traits<StorageMap>::reference reference;
typedef typename property_traits<StorageMap>::category category;
local_property_map() { }
local_property_map(const ProcessGroup& process_group,
const GlobalMap& global, const StorageMap& storage)
: process_group_(process_group), global_(global), storage(storage) { }
reference operator[](const key_type& key)
{
owner_local_pair p = get(global_, key);
BOOST_ASSERT(p.first == process_id(process_group_));
return storage[p.second];
}
GlobalMap& global() const { return global_; }
StorageMap& base() const { return storage; }
ProcessGroup& process_group() { return process_group_; }
const ProcessGroup& process_group() const { return process_group_; }
private:
ProcessGroup process_group_;
mutable GlobalMap global_;
mutable StorageMap storage;
};
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
inline
typename local_property_map<ProcessGroup, GlobalMap, StorageMap>::reference
get(const local_property_map<ProcessGroup, GlobalMap, StorageMap>& pm,
typename local_property_map<ProcessGroup, GlobalMap, StorageMap>::key_type
const & key)
{
typename property_traits<GlobalMap>::value_type p = get(pm.global(), key);
return get(pm.base(), p.second);
}
template<typename ProcessGroup, typename GlobalMap, typename StorageMap>
inline void
put(const local_property_map<ProcessGroup, GlobalMap, StorageMap>& pm,
typename local_property_map<ProcessGroup, GlobalMap, StorageMap>
::key_type const & key,
typename local_property_map<ProcessGroup, GlobalMap, StorageMap>
::value_type const& v)
{
typename property_traits<GlobalMap>::value_type p = get(pm.global(), key);
BOOST_ASSERT(p.first == process_id(pm.process_group()));
put(pm.base(), p.second, v);
}
} // end namespace boost
#endif // BOOST_PARALLEL_LOCAL_PROPERTY_MAP_HPP

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// (C) Copyright Jeremy Siek 1999-2001.
// Copyright (C) 2006 Trustees of Indiana University
// Authors: Douglas Gregor and Jeremy Siek
// Distributed under the Boost Software License, Version 1.0. (See
// accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// See http://www.boost.org/libs/property_map for documentation.
#ifndef BOOST_PROPERTY_MAP_HPP
#define BOOST_PROPERTY_MAP_HPP
#include <boost/assert.hpp>
#include <boost/config.hpp>
#include <boost/pending/cstddef.hpp>
#include <boost/detail/iterator.hpp>
#include <boost/concept_check.hpp>
#include <boost/concept_archetype.hpp>
#include <boost/mpl/assert.hpp>
#include <boost/mpl/or.hpp>
#include <boost/mpl/and.hpp>
#include <boost/mpl/has_xxx.hpp>
#include <boost/type_traits/is_same.hpp>
namespace boost {
//=========================================================================
// property_traits class
BOOST_MPL_HAS_XXX_TRAIT_DEF(key_type)
BOOST_MPL_HAS_XXX_TRAIT_DEF(value_type)
BOOST_MPL_HAS_XXX_TRAIT_DEF(reference)
BOOST_MPL_HAS_XXX_TRAIT_DEF(category)
template<class PA>
struct is_property_map :
boost::mpl::and_<
has_key_type<PA>,
has_value_type<PA>,
has_reference<PA>,
has_category<PA>
>
{};
template <typename PA>
struct default_property_traits {
typedef typename PA::key_type key_type;
typedef typename PA::value_type value_type;
typedef typename PA::reference reference;
typedef typename PA::category category;
};
struct null_property_traits {};
template <typename PA>
struct property_traits :
boost::mpl::if_<is_property_map<PA>,
default_property_traits<PA>,
null_property_traits>::type
{};
#if 0
template <typename PA>
struct property_traits {
typedef typename PA::key_type key_type;
typedef typename PA::value_type value_type;
typedef typename PA::reference reference;
typedef typename PA::category category;
};
#endif
//=========================================================================
// property_traits category tags
namespace detail {
enum ePropertyMapID { READABLE_PA, WRITABLE_PA,
READ_WRITE_PA, LVALUE_PA, OP_BRACKET_PA,
RAND_ACCESS_ITER_PA, LAST_PA };
}
struct readable_property_map_tag { enum { id = detail::READABLE_PA }; };
struct writable_property_map_tag { enum { id = detail::WRITABLE_PA }; };
struct read_write_property_map_tag :
public readable_property_map_tag,
public writable_property_map_tag
{ enum { id = detail::READ_WRITE_PA }; };
struct lvalue_property_map_tag : public read_write_property_map_tag
{ enum { id = detail::LVALUE_PA }; };
//=========================================================================
// property_traits specialization for pointers
#ifdef BOOST_NO_TEMPLATE_PARTIAL_SPECIALIZATION
// The user will just have to create their own specializations for
// other pointers types if the compiler does not have partial
// specializations. Sorry!
#define BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(TYPE) \
template <> \
struct property_traits<TYPE*> { \
typedef TYPE value_type; \
typedef value_type& reference; \
typedef std::ptrdiff_t key_type; \
typedef lvalue_property_map_tag category; \
}; \
template <> \
struct property_traits<const TYPE*> { \
typedef TYPE value_type; \
typedef const value_type& reference; \
typedef std::ptrdiff_t key_type; \
typedef lvalue_property_map_tag category; \
}
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(long);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(unsigned long);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(int);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(unsigned int);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(short);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(unsigned short);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(char);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(unsigned char);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(signed char);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(bool);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(float);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(double);
BOOST_SPECIALIZE_PROPERTY_TRAITS_PTR(long double);
// This may need to be turned off for some older compilers that don't have
// wchar_t intrinsically.
# ifndef BOOST_NO_INTRINSIC_WCHAR_T
template <>
struct property_traits<wchar_t*> {
typedef wchar_t value_type;
typedef value_type& reference;
typedef std::ptrdiff_t key_type;
typedef lvalue_property_map_tag category;
};
template <>
struct property_traits<const wchar_t*> {
typedef wchar_t value_type;
typedef const value_type& reference;
typedef std::ptrdiff_t key_type;
typedef lvalue_property_map_tag category;
};
# endif
#else
template <class T>
struct property_traits<T*> {
typedef T value_type;
typedef value_type& reference;
typedef std::ptrdiff_t key_type;
typedef lvalue_property_map_tag category;
};
template <class T>
struct property_traits<const T*> {
typedef T value_type;
typedef const value_type& reference;
typedef std::ptrdiff_t key_type;
typedef lvalue_property_map_tag category;
};
#endif
#if !defined(BOOST_NO_ARGUMENT_DEPENDENT_LOOKUP)
// MSVC doesn't have Koenig lookup, so the user has to
// do boost::get() anyways, and the using clause
// doesn't really work for MSVC.
} // namespace boost
#endif
// These need to go in global namespace because Koenig
// lookup does not apply to T*.
// V must be convertible to T
template <class T, class V>
inline void put(T* pa, std::ptrdiff_t k, const V& val) { pa[k] = val; }
template <class T>
inline const T& get(const T* pa, std::ptrdiff_t k) { return pa[k]; }
#if !defined(BOOST_NO_ARGUMENT_DEPENDENT_LOOKUP)
namespace boost {
using ::put;
using ::get;
#endif
//=========================================================================
// concept checks for property maps
template <class PMap, class Key>
struct ReadablePropertyMapConcept
{
typedef typename property_traits<PMap>::key_type key_type;
typedef typename property_traits<PMap>::reference reference;
typedef typename property_traits<PMap>::category Category;
typedef boost::readable_property_map_tag ReadableTag;
void constraints() {
function_requires< ConvertibleConcept<Category, ReadableTag> >();
val = get(pmap, k);
}
PMap pmap;
Key k;
typename property_traits<PMap>::value_type val;
};
template <typename KeyArchetype, typename ValueArchetype>
struct readable_property_map_archetype {
typedef KeyArchetype key_type;
typedef ValueArchetype value_type;
typedef convertible_to_archetype<ValueArchetype> reference;
typedef readable_property_map_tag category;
};
template <typename K, typename V>
const typename readable_property_map_archetype<K,V>::reference&
get(const readable_property_map_archetype<K,V>&,
const typename readable_property_map_archetype<K,V>::key_type&)
{
typedef typename readable_property_map_archetype<K,V>::reference R;
return static_object<R>::get();
}
template <class PMap, class Key>
struct WritablePropertyMapConcept
{
typedef typename property_traits<PMap>::key_type key_type;
typedef typename property_traits<PMap>::category Category;
typedef boost::writable_property_map_tag WritableTag;
void constraints() {
function_requires< ConvertibleConcept<Category, WritableTag> >();
put(pmap, k, val);
}
PMap pmap;
Key k;
typename property_traits<PMap>::value_type val;
};
template <typename KeyArchetype, typename ValueArchetype>
struct writable_property_map_archetype {
typedef KeyArchetype key_type;
typedef ValueArchetype value_type;
typedef void reference;
typedef writable_property_map_tag category;
};
template <typename K, typename V>
void put(const writable_property_map_archetype<K,V>&,
const typename writable_property_map_archetype<K,V>::key_type&,
const typename writable_property_map_archetype<K,V>::value_type&) { }
template <class PMap, class Key>
struct ReadWritePropertyMapConcept
{
typedef typename property_traits<PMap>::category Category;
typedef boost::read_write_property_map_tag ReadWriteTag;
void constraints() {
function_requires< ReadablePropertyMapConcept<PMap, Key> >();
function_requires< WritablePropertyMapConcept<PMap, Key> >();
function_requires< ConvertibleConcept<Category, ReadWriteTag> >();
}
};
template <typename KeyArchetype, typename ValueArchetype>
struct read_write_property_map_archetype
: public readable_property_map_archetype<KeyArchetype, ValueArchetype>,
public writable_property_map_archetype<KeyArchetype, ValueArchetype>
{
typedef KeyArchetype key_type;
typedef ValueArchetype value_type;
typedef convertible_to_archetype<ValueArchetype> reference;
typedef read_write_property_map_tag category;
};
template <class PMap, class Key>
struct LvaluePropertyMapConcept
{
typedef typename property_traits<PMap>::category Category;
typedef boost::lvalue_property_map_tag LvalueTag;
typedef typename property_traits<PMap>::reference reference;
void constraints() {
function_requires< ReadablePropertyMapConcept<PMap, Key> >();
function_requires< ConvertibleConcept<Category, LvalueTag> >();
typedef typename property_traits<PMap>::value_type value_type;
BOOST_MPL_ASSERT((boost::mpl::or_<
boost::is_same<const value_type&, reference>,
boost::is_same<value_type&, reference> >));
reference ref = pmap[k];
ignore_unused_variable_warning(ref);
}
PMap pmap;
Key k;
};
template <typename KeyArchetype, typename ValueArchetype>
struct lvalue_property_map_archetype
: public readable_property_map_archetype<KeyArchetype, ValueArchetype>
{
typedef KeyArchetype key_type;
typedef ValueArchetype value_type;
typedef const ValueArchetype& reference;
typedef lvalue_property_map_tag category;
const value_type& operator[](const key_type&) const {
return static_object<value_type>::get();
}
};
template <class PMap, class Key>
struct Mutable_LvaluePropertyMapConcept
{
typedef typename property_traits<PMap>::category Category;
typedef boost::lvalue_property_map_tag LvalueTag;
typedef typename property_traits<PMap>::reference reference;
void constraints() {
boost::function_requires< ReadWritePropertyMapConcept<PMap, Key> >();
boost::function_requires<ConvertibleConcept<Category, LvalueTag> >();
typedef typename property_traits<PMap>::value_type value_type;
BOOST_MPL_ASSERT((boost::is_same<value_type&, reference>));
reference ref = pmap[k];
ignore_unused_variable_warning(ref);
}
PMap pmap;
Key k;
};
template <typename KeyArchetype, typename ValueArchetype>
struct mutable_lvalue_property_map_archetype
: public readable_property_map_archetype<KeyArchetype, ValueArchetype>,
public writable_property_map_archetype<KeyArchetype, ValueArchetype>
{
typedef KeyArchetype key_type;
typedef ValueArchetype value_type;
typedef ValueArchetype& reference;
typedef lvalue_property_map_tag category;
value_type& operator[](const key_type&) const {
return static_object<value_type>::get();
}
};
template <typename T>
struct typed_identity_property_map;
// A helper class for constructing a property map
// from a class that implements operator[]
template <class Reference, class LvaluePropertyMap>
struct put_get_helper { };
template <class PropertyMap, class Reference, class K>
inline Reference
get(const put_get_helper<Reference, PropertyMap>& pa, const K& k)
{
Reference v = static_cast<const PropertyMap&>(pa)[k];
return v;
}
template <class PropertyMap, class Reference, class K, class V>
inline void
put(const put_get_helper<Reference, PropertyMap>& pa, K k, const V& v)
{
static_cast<const PropertyMap&>(pa)[k] = v;
}
//=========================================================================
// Adapter to turn a RandomAccessIterator into a property map
template <class RandomAccessIterator,
class IndexMap
#ifdef BOOST_NO_STD_ITERATOR_TRAITS
, class T, class R
#else
, class T = typename std::iterator_traits<RandomAccessIterator>::value_type
, class R = typename std::iterator_traits<RandomAccessIterator>::reference
#endif
>
class iterator_property_map
: public boost::put_get_helper< R,
iterator_property_map<RandomAccessIterator, IndexMap,
T, R> >
{
public:
typedef typename property_traits<IndexMap>::key_type key_type;
typedef T value_type;
typedef R reference;
typedef boost::lvalue_property_map_tag category;
inline iterator_property_map(
RandomAccessIterator cc = RandomAccessIterator(),
const IndexMap& _id = IndexMap() )
: iter(cc), index(_id) { }
inline R operator[](key_type v) const { return *(iter + get(index, v)) ; }
protected:
RandomAccessIterator iter;
IndexMap index;
};
#if !defined BOOST_NO_STD_ITERATOR_TRAITS
template <class RAIter, class ID>
inline iterator_property_map<
RAIter, ID,
typename std::iterator_traits<RAIter>::value_type,
typename std::iterator_traits<RAIter>::reference>
make_iterator_property_map(RAIter iter, ID id) {
function_requires< RandomAccessIteratorConcept<RAIter> >();
typedef iterator_property_map<
RAIter, ID,
typename std::iterator_traits<RAIter>::value_type,
typename std::iterator_traits<RAIter>::reference> PA;
return PA(iter, id);
}
#endif
template <class RAIter, class Value, class ID>
inline iterator_property_map<RAIter, ID, Value, Value&>
make_iterator_property_map(RAIter iter, ID id, Value) {
function_requires< RandomAccessIteratorConcept<RAIter> >();
typedef iterator_property_map<RAIter, ID, Value, Value&> PMap;
return PMap(iter, id);
}
template <class RandomAccessIterator,
class IndexMap
#ifdef BOOST_NO_STD_ITERATOR_TRAITS
, class T, class R
#else
, class T = typename std::iterator_traits<RandomAccessIterator>::value_type
, class R = typename std::iterator_traits<RandomAccessIterator>::reference
#endif
>
class safe_iterator_property_map
: public boost::put_get_helper< R,
safe_iterator_property_map<RandomAccessIterator, IndexMap,
T, R> >
{
public:
typedef typename property_traits<IndexMap>::key_type key_type;
typedef T value_type;
typedef R reference;
typedef boost::lvalue_property_map_tag category;
inline safe_iterator_property_map(
RandomAccessIterator first,
std::size_t n_ = 0,
const IndexMap& _id = IndexMap() )
: iter(first), n(n_), index(_id) { }
inline safe_iterator_property_map() { }
inline R operator[](key_type v) const {
BOOST_ASSERT(get(index, v) < n);
return *(iter + get(index, v)) ;
}
typename property_traits<IndexMap>::value_type size() const { return n; }
protected:
RandomAccessIterator iter;
typename property_traits<IndexMap>::value_type n;
IndexMap index;
};
#if !defined BOOST_NO_TEMPLATE_PARTIAL_SPECIALIZATION
template <class RAIter, class ID>
inline safe_iterator_property_map<
RAIter, ID,
typename boost::detail::iterator_traits<RAIter>::value_type,
typename boost::detail::iterator_traits<RAIter>::reference>
make_safe_iterator_property_map(RAIter iter, std::size_t n, ID id) {
function_requires< RandomAccessIteratorConcept<RAIter> >();
typedef safe_iterator_property_map<
RAIter, ID,
typename boost::detail::iterator_traits<RAIter>::value_type,
typename boost::detail::iterator_traits<RAIter>::reference> PA;
return PA(iter, n, id);
}
#endif
template <class RAIter, class Value, class ID>
inline safe_iterator_property_map<RAIter, ID, Value, Value&>
make_safe_iterator_property_map(RAIter iter, std::size_t n, ID id, Value) {
function_requires< RandomAccessIteratorConcept<RAIter> >();
typedef safe_iterator_property_map<RAIter, ID, Value, Value&> PMap;
return PMap(iter, n, id);
}
//=========================================================================
// An adaptor to turn a Unique Pair Associative Container like std::map or
// std::hash_map into an Lvalue Property Map.
template <typename UniquePairAssociativeContainer>
class associative_property_map
: public boost::put_get_helper<
typename UniquePairAssociativeContainer::value_type::second_type&,
associative_property_map<UniquePairAssociativeContainer> >
{
typedef UniquePairAssociativeContainer C;
public:
typedef typename C::key_type key_type;
typedef typename C::value_type::second_type value_type;
typedef value_type& reference;
typedef lvalue_property_map_tag category;
associative_property_map() : m_c(0) { }
associative_property_map(C& c) : m_c(&c) { }
reference operator[](const key_type& k) const {
return (*m_c)[k];
}
private:
C* m_c;
};
template <class UniquePairAssociativeContainer>
associative_property_map<UniquePairAssociativeContainer>
make_assoc_property_map(UniquePairAssociativeContainer& c)
{
return associative_property_map<UniquePairAssociativeContainer>(c);
}
template <typename UniquePairAssociativeContainer>
class const_associative_property_map
: public boost::put_get_helper<
const typename UniquePairAssociativeContainer::value_type::second_type&,
const_associative_property_map<UniquePairAssociativeContainer> >
{
typedef UniquePairAssociativeContainer C;
public:
typedef typename C::key_type key_type;
typedef typename C::value_type::second_type value_type;
typedef const value_type& reference;
typedef lvalue_property_map_tag category;
const_associative_property_map() : m_c(0) { }
const_associative_property_map(const C& c) : m_c(&c) { }
reference operator[](const key_type& k) const {
return m_c->find(k)->second;
}
private:
C const* m_c;
};
template <class UniquePairAssociativeContainer>
const_associative_property_map<UniquePairAssociativeContainer>
make_assoc_property_map(const UniquePairAssociativeContainer& c)
{
return const_associative_property_map<UniquePairAssociativeContainer>(c);
}
//=========================================================================
// A property map that always returns the same object by value.
//
template <typename ValueType>
class static_property_map :
public
boost::put_get_helper<ValueType,static_property_map<ValueType> >
{
ValueType value;
public:
typedef void key_type;
typedef ValueType value_type;
typedef ValueType reference;
typedef readable_property_map_tag category;
static_property_map(ValueType v) : value(v) {}
template<typename T>
inline reference operator[](T) const { return value; }
};
//=========================================================================
// A property map that always returns a reference to the same object.
//
template <typename KeyType, typename ValueType>
class ref_property_map :
public
boost::put_get_helper<ValueType&,ref_property_map<KeyType,ValueType> >
{
ValueType* value;
public:
typedef KeyType key_type;
typedef ValueType value_type;
typedef ValueType& reference;
typedef lvalue_property_map_tag category;
ref_property_map(ValueType& v) : value(&v) {}
ValueType& operator[](key_type const&) const { return *value; }
};
//=========================================================================
// A generalized identity property map
template <typename T>
struct typed_identity_property_map
: public boost::put_get_helper<T, typed_identity_property_map<T> >
{
typedef T key_type;
typedef T value_type;
typedef T reference;
typedef boost::readable_property_map_tag category;
inline value_type operator[](const key_type& v) const { return v; }
};
//=========================================================================
// A property map that applies the identity function to integers
typedef typed_identity_property_map<std::size_t> identity_property_map;
//=========================================================================
// A property map that does not do anything, for
// when you have to supply a property map, but don't need it.
namespace detail {
struct dummy_pmap_reference {
template <class T>
dummy_pmap_reference& operator=(const T&) { return *this; }
operator int() { return 0; }
};
}
class dummy_property_map
: public boost::put_get_helper<detail::dummy_pmap_reference,
dummy_property_map >
{
public:
typedef void key_type;
typedef int value_type;
typedef detail::dummy_pmap_reference reference;
typedef boost::read_write_property_map_tag category;
inline dummy_property_map() : c(0) { }
inline dummy_property_map(value_type cc) : c(cc) { }
inline dummy_property_map(const dummy_property_map& x)
: c(x.c) { }
template <class Vertex>
inline reference operator[](Vertex) const { return reference(); }
protected:
value_type c;
};
// Convert a Readable property map into a function object
template <typename PropMap>
class property_map_function {
PropMap pm;
typedef typename property_traits<PropMap>::key_type param_type;
public:
explicit property_map_function(const PropMap& pm): pm(pm) {}
typedef typename property_traits<PropMap>::value_type result_type;
result_type operator()(const param_type& k) const {return get(pm, k);}
};
template <typename PropMap>
property_map_function<PropMap>
make_property_map_function(const PropMap& pm) {
return property_map_function<PropMap>(pm);
}
} // namespace boost
#ifdef BOOST_GRAPH_USE_MPI
#include <boost/property_map/parallel/distributed_property_map.hpp>
#include <boost/property_map/parallel/local_property_map.hpp>
namespace boost {
/** Distributed iterator property map.
*
* This specialization of @ref iterator_property_map builds a
* distributed iterator property map given the local index maps
* generated by distributed graph types that automatically have index
* properties.
*
* This specialization is useful when creating external distributed
* property maps via the same syntax used to create external
* sequential property maps.
*/
template<typename RandomAccessIterator, typename ProcessGroup,
typename GlobalMap, typename StorageMap,
typename ValueType, typename Reference>
class iterator_property_map
<RandomAccessIterator,
local_property_map<ProcessGroup, GlobalMap, StorageMap>,
ValueType, Reference>
: public parallel::distributed_property_map
<ProcessGroup,
GlobalMap,
iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> >
{
typedef iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> local_iterator_map;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
local_iterator_map> inherited;
typedef local_property_map<ProcessGroup, GlobalMap, StorageMap>
index_map_type;
typedef iterator_property_map self_type;
public:
iterator_property_map() { }
iterator_property_map(RandomAccessIterator cc, const index_map_type& id)
: inherited(id.process_group(), id.global(),
local_iterator_map(cc, id.base())) { }
};
/** Distributed iterator property map.
*
* This specialization of @ref iterator_property_map builds a
* distributed iterator property map given a distributed index
* map. Only the local portion of the distributed index property map
* is utilized.
*
* This specialization is useful when creating external distributed
* property maps via the same syntax used to create external
* sequential property maps.
*/
template<typename RandomAccessIterator, typename ProcessGroup,
typename GlobalMap, typename StorageMap,
typename ValueType, typename Reference>
class iterator_property_map<
RandomAccessIterator,
parallel::distributed_property_map<ProcessGroup,GlobalMap,StorageMap>,
ValueType, Reference
>
: public parallel::distributed_property_map
<ProcessGroup,
GlobalMap,
iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> >
{
typedef iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> local_iterator_map;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
local_iterator_map> inherited;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
StorageMap>
index_map_type;
public:
iterator_property_map() { }
iterator_property_map(RandomAccessIterator cc, const index_map_type& id)
: inherited(id.process_group(), id.global(),
local_iterator_map(cc, id.base())) { }
};
namespace parallel {
// Generate an iterator property map with a specific kind of ghost
// cells
template<typename RandomAccessIterator, typename ProcessGroup,
typename GlobalMap, typename StorageMap>
distributed_property_map<ProcessGroup,
GlobalMap,
iterator_property_map<RandomAccessIterator,
StorageMap> >
make_iterator_property_map(RandomAccessIterator cc,
local_property_map<ProcessGroup, GlobalMap,
StorageMap> index_map)
{
typedef distributed_property_map<
ProcessGroup, GlobalMap,
iterator_property_map<RandomAccessIterator, StorageMap> >
result_type;
return result_type(index_map.process_group(), index_map.global(),
make_iterator_property_map(cc, index_map.base()));
}
} // end namespace parallel
/** Distributed safe iterator property map.
*
* This specialization of @ref safe_iterator_property_map builds a
* distributed iterator property map given the local index maps
* generated by distributed graph types that automatically have index
* properties.
*
* This specialization is useful when creating external distributed
* property maps via the same syntax used to create external
* sequential property maps.
*/
template<typename RandomAccessIterator, typename ProcessGroup,
typename GlobalMap, typename StorageMap, typename ValueType,
typename Reference>
class safe_iterator_property_map
<RandomAccessIterator,
local_property_map<ProcessGroup, GlobalMap, StorageMap>,
ValueType, Reference>
: public parallel::distributed_property_map
<ProcessGroup,
GlobalMap,
safe_iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> >
{
typedef safe_iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> local_iterator_map;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
local_iterator_map> inherited;
typedef local_property_map<ProcessGroup, GlobalMap, StorageMap> index_map_type;
public:
safe_iterator_property_map() { }
safe_iterator_property_map(RandomAccessIterator cc, std::size_t n,
const index_map_type& id)
: inherited(id.process_group(), id.global(),
local_iterator_map(cc, n, id.base())) { }
};
/** Distributed safe iterator property map.
*
* This specialization of @ref safe_iterator_property_map builds a
* distributed iterator property map given a distributed index
* map. Only the local portion of the distributed index property map
* is utilized.
*
* This specialization is useful when creating external distributed
* property maps via the same syntax used to create external
* sequential property maps.
*/
template<typename RandomAccessIterator, typename ProcessGroup,
typename GlobalMap, typename StorageMap,
typename ValueType, typename Reference>
class safe_iterator_property_map<
RandomAccessIterator,
parallel::distributed_property_map<ProcessGroup,GlobalMap,StorageMap>,
ValueType, Reference>
: public parallel::distributed_property_map
<ProcessGroup,
GlobalMap,
safe_iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> >
{
typedef safe_iterator_property_map<RandomAccessIterator, StorageMap,
ValueType, Reference> local_iterator_map;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
local_iterator_map> inherited;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
StorageMap>
index_map_type;
public:
safe_iterator_property_map() { }
safe_iterator_property_map(RandomAccessIterator cc, std::size_t n,
const index_map_type& id)
: inherited(id.process_group(), id.global(),
local_iterator_map(cc, n, id.base())) { }
};
}
#endif // BOOST_GRAPH_USE_MPI
#include <boost/property_map/vector_property_map.hpp>
#endif /* BOOST_PROPERTY_MAP_HPP */

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// (C) Copyright Jeremy Siek, 2001.
// Distributed under the Boost Software License, Version 1.0. (See
// accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// See http://www.boost.org/libs/property_map for documentation.
#ifndef BOOST_PROPERTY_MAP_ITERATOR_HPP
#define BOOST_PROPERTY_MAP_ITERATOR_HPP
#include <boost/property_map/property_map.hpp>
#include <boost/iterator/iterator_adaptor.hpp>
#include <boost/mpl/if.hpp>
#include <boost/type_traits/is_same.hpp>
namespace boost {
//======================================================================
// property iterator, generalized from ideas by Francois Faure
namespace detail {
template <class Iterator, class LvaluePropertyMap>
class lvalue_pmap_iter
: public iterator_adaptor< lvalue_pmap_iter< Iterator, LvaluePropertyMap >,
Iterator,
typename property_traits<LvaluePropertyMap>::value_type,
use_default,
typename property_traits<LvaluePropertyMap>::reference>
{
friend class boost::iterator_core_access;
typedef iterator_adaptor< lvalue_pmap_iter< Iterator, LvaluePropertyMap >,
Iterator,
typename property_traits<LvaluePropertyMap>::value_type,
use_default,
typename property_traits<LvaluePropertyMap>::reference> super_t;
public:
lvalue_pmap_iter() { }
lvalue_pmap_iter(Iterator const& it,
LvaluePropertyMap m)
: super_t(it),
m_map(m) {}
private:
typename super_t::reference
dereference() const
{
return m_map[*(this->base_reference())];
}
LvaluePropertyMap m_map;
};
template <class Iterator, class ReadablePropertyMap>
class readable_pmap_iter :
public iterator_adaptor< readable_pmap_iter< Iterator, ReadablePropertyMap >,
Iterator,
typename property_traits<ReadablePropertyMap>::value_type,
use_default,
typename property_traits<ReadablePropertyMap>::value_type>
{
friend class boost::iterator_core_access;
typedef iterator_adaptor< readable_pmap_iter< Iterator, ReadablePropertyMap >,
Iterator,
typename property_traits<ReadablePropertyMap>::value_type,
use_default,
typename property_traits<ReadablePropertyMap>::value_type> super_t;
public:
readable_pmap_iter() { }
readable_pmap_iter(Iterator const& it,
ReadablePropertyMap m)
: super_t(it),
m_map(m) {}
private:
typename super_t::reference
dereference() const
{
return get(m_map, *(this->base_reference()));
}
ReadablePropertyMap m_map;
};
} // namespace detail
template <class PropertyMap, class Iterator>
struct property_map_iterator_generator :
mpl::if_< is_same< typename property_traits<PropertyMap>::category, lvalue_property_map_tag>,
detail::lvalue_pmap_iter<Iterator, PropertyMap>,
detail::readable_pmap_iter<Iterator, PropertyMap> >
{};
template <class PropertyMap, class Iterator>
typename property_map_iterator_generator<PropertyMap, Iterator>::type
make_property_map_iterator(PropertyMap pmap, Iterator iter)
{
typedef typename property_map_iterator_generator<PropertyMap,
Iterator>::type Iter;
return Iter(iter, pmap);
}
} // namespace boost
#endif // BOOST_PROPERTY_MAP_ITERATOR_HPP

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// Copyright (C) 2009 Trustees of Indiana University
// Authors: Jeremiah Willcock, Andrew Lumsdaine
// Distributed under the Boost Software License, Version 1.0. (See
// accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
// See http://www.boost.org/libs/property_map for documentation.
#ifndef BOOST_SHARED_ARRAY_PROPERTY_MAP_HPP
#define BOOST_SHARED_ARRAY_PROPERTY_MAP_HPP
#include <boost/smart_ptr/shared_array.hpp>
#include <boost/property_map/property_map.hpp>
namespace boost {
template <class T, class IndexMap>
class shared_array_property_map
: public boost::put_get_helper<T&, shared_array_property_map<T, IndexMap> >
{
public:
typedef typename property_traits<IndexMap>::key_type key_type;
typedef T value_type;
typedef T& reference;
typedef boost::lvalue_property_map_tag category;
inline shared_array_property_map(): data(), index() {}
explicit inline shared_array_property_map(
size_t n,
const IndexMap& _id = IndexMap())
: data(new T[n]), index(_id) {}
inline T& operator[](key_type v) const {
return data[get(index, v)];
}
private:
boost::shared_array<T> data;
IndexMap index;
};
template <class T, class IndexMap>
shared_array_property_map<T, IndexMap>
make_shared_array_property_map(size_t n, const T&, const IndexMap& index) {
return shared_array_property_map<T, IndexMap>(n, index);
}
} // end namespace boost
#endif // BOOST_SHARED_ARRAY_PROPERTY_MAP_HPP

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// Copyright (C) Vladimir Prus 2003.
// Distributed under the Boost Software License, Version 1.0. (See
// accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
//
// See http://www.boost.org/libs/graph/vector_property_map.html for
// documentation.
//
#ifndef VECTOR_PROPERTY_MAP_HPP_VP_2003_03_04
#define VECTOR_PROPERTY_MAP_HPP_VP_2003_03_04
#include <boost/property_map/property_map.hpp>
#include <boost/shared_ptr.hpp>
#include <vector>
namespace boost {
template<typename T, typename IndexMap = identity_property_map>
class vector_property_map
: public boost::put_get_helper<
typename std::iterator_traits<
typename std::vector<T>::iterator >::reference,
vector_property_map<T, IndexMap> >
{
public:
typedef typename property_traits<IndexMap>::key_type key_type;
typedef T value_type;
typedef typename std::iterator_traits<
typename std::vector<T>::iterator >::reference reference;
typedef boost::lvalue_property_map_tag category;
vector_property_map(const IndexMap& index = IndexMap())
: store(new std::vector<T>()), index(index)
{}
vector_property_map(unsigned initial_size,
const IndexMap& index = IndexMap())
: store(new std::vector<T>(initial_size)), index(index)
{}
typename std::vector<T>::iterator storage_begin()
{
return store->begin();
}
typename std::vector<T>::iterator storage_end()
{
return store->end();
}
typename std::vector<T>::const_iterator storage_begin() const
{
return store->begin();
}
typename std::vector<T>::const_iterator storage_end() const
{
return store->end();
}
IndexMap& get_index_map() { return index; }
const IndexMap& get_index_map() const { return index; }
public:
// Copy ctor absent, default semantics is OK.
// Assignment operator absent, default semantics is OK.
// CONSIDER: not sure that assignment to 'index' is correct.
reference operator[](const key_type& v) const {
typename property_traits<IndexMap>::value_type i = get(index, v);
if (static_cast<unsigned>(i) >= store->size()) {
store->resize(i + 1, T());
}
return (*store)[i];
}
private:
// Conceptually, we have a vector of infinite size. For practical
// purposes, we start with an empty vector and grow it as needed.
// Note that we cannot store pointer to vector here -- we cannot
// store pointer to data, because if copy of property map resizes
// the vector, the pointer to data will be invalidated.
// I wonder if class 'pmap_ref' is simply needed.
shared_ptr< std::vector<T> > store;
IndexMap index;
};
template<typename T, typename IndexMap>
vector_property_map<T, IndexMap>
make_vector_property_map(IndexMap index)
{
return vector_property_map<T, IndexMap>(index);
}
}
#ifdef BOOST_GRAPH_USE_MPI
#include <boost/property_map/parallel/distributed_property_map.hpp>
#include <boost/property_map/parallel/local_property_map.hpp>
namespace boost {
/** Distributed vector property map.
*
* This specialization of @ref vector_property_map builds a
* distributed vector property map given the local index maps
* generated by distributed graph types that automatically have index
* properties.
*
* This specialization is useful when creating external distributed
* property maps via the same syntax used to create external
* sequential property maps.
*/
template<typename T, typename ProcessGroup, typename GlobalMap,
typename StorageMap>
class vector_property_map<T,
local_property_map<ProcessGroup, GlobalMap,
StorageMap> >
: public parallel::distributed_property_map<
ProcessGroup, GlobalMap, vector_property_map<T, StorageMap> >
{
typedef vector_property_map<T, StorageMap> local_iterator_map;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
local_iterator_map> inherited;
typedef local_property_map<ProcessGroup, GlobalMap, StorageMap> index_map_type;
public:
vector_property_map(const index_map_type& index = index_map_type())
: inherited(index.process_group(), index.global(),
local_iterator_map(index.base())) { }
vector_property_map(unsigned inital_size,
const index_map_type& index = index_map_type())
: inherited(index.process_group(), index.global(),
local_iterator_map(inital_size, index.base())) { }
};
/** Distributed vector property map.
*
* This specialization of @ref vector_property_map builds a
* distributed vector property map given the local index maps
* generated by distributed graph types that automatically have index
* properties.
*
* This specialization is useful when creating external distributed
* property maps via the same syntax used to create external
* sequential property maps.
*/
template<typename T, typename ProcessGroup, typename GlobalMap,
typename StorageMap>
class vector_property_map<
T,
parallel::distributed_property_map<
ProcessGroup,
GlobalMap,
StorageMap
>
>
: public parallel::distributed_property_map<
ProcessGroup, GlobalMap, vector_property_map<T, StorageMap> >
{
typedef vector_property_map<T, StorageMap> local_iterator_map;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
local_iterator_map> inherited;
typedef parallel::distributed_property_map<ProcessGroup, GlobalMap,
StorageMap>
index_map_type;
public:
vector_property_map(const index_map_type& index = index_map_type())
: inherited(index.process_group(), index.global(),
local_iterator_map(index.base())) { }
vector_property_map(unsigned inital_size,
const index_map_type& index = index_map_type())
: inherited(index.process_group(), index.global(),
local_iterator_map(inital_size, index.base())) { }
};
}
#endif // BOOST_GRAPH_USE_MPI
#endif