1116 lines
30 KiB
C++

/*
Copyright 2015-2016 Amebis
Copyright 2016 GÉANT
This file is part of GÉANTLink.
GÉANTLink is free software: you can redistribute it and/or modify it
under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 3 of the License, or
(at your option) any later version.
GÉANTLink is distributed in the hope that it will be useful, but
WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with GÉANTLink. If not, see <http://www.gnu.org/licenses/>.
*/
#define IDR_EAP_KEY_PUBLIC 1
#define IDR_EAP_KEY_PRIVATE 2
#ifndef EAP_ENCRYPT_BLOBS
#define EAP_ENCRYPT_BLOBS 1
#endif
#define _HOST_LOW_ENDIAN
#if !defined(RC_INVOKED) && !defined(MIDL_PASS)
#include <WinStd/Common.h>
#include <WinStd/Crypt.h>
#include <WinStd/EAP.h>
#include <sal.h>
#include <list>
#include <memory>
#include <string>
#include <vector>
namespace eap
{
///
/// Output BLOB cursor
///
struct cursor_out;
///
/// Input BLOB cursor
///
struct cursor_in;
///
/// Sanitizing dynamically allocated BLOB
///
typedef std::vector<unsigned char, winstd::sanitizing_allocator<unsigned char> > sanitizing_blob;
///
/// Sanitizing BLOB of fixed size
///
template<size_t N> struct sanitizing_blob_f;
///
/// Sanitizing BLOB of fixed size (zero initialized)
///
template<size_t N> struct sanitizing_blob_zf;
///
/// Sanitizing BLOB of fixed size (zero initialized in _DEBUG version)
///
#ifdef _DEBUG
#define sanitizing_blob_xf sanitizing_blob_zf
#else
#define sanitizing_blob_xf sanitizing_blob_f
#endif
///
/// Diameter AVP flags
///
enum diameter_avp_flags_t;
///
/// Diameter AVP header
///
struct diameter_avp_header;
///
/// Diameter AVP header with Vendor-ID
///
struct diameter_avp_header_ven;
///
/// EAP packet
///
class packet;
}
///
/// Packs a boolean
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Variable with data to pack
///
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const bool &val);
///
/// Returns packed size of a boolean
///
/// \param[in] val Data to pack
///
/// \returns Size of data when packed (in bytes)
///
inline size_t pksizeof(_In_ const bool &val);
///
/// Unpacks a boolean
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Variable to receive unpacked value
///
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ bool &val);
///
/// Packs a byte
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Variable with data to pack
///
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const unsigned char &val);
///
/// Returns packed size of a byte
///
/// \param[in] val Data to pack
///
/// \returns Size of data when packed (in bytes)
///
inline size_t pksizeof(_In_ const unsigned char &val);
///
/// Unpacks a byte
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Variable to receive unpacked value
///
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ unsigned char &val);
///
/// Packs an unsigned int
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Variable with data to pack
///
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const unsigned int &val);
///
/// Returns packed size of an unsigned int
///
/// \param[in] val Data to pack
///
/// \returns Size of data when packed (in bytes)
///
inline size_t pksizeof(_In_ const unsigned int &val);
///
/// Unpacks an unsigned int
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Variable to receive unpacked value
///
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ unsigned int &val);
#ifdef _WIN64
///
/// Packs a size_t
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Variable with data to pack
///
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const size_t &val);
///
/// Returns packed size of a size_t
///
/// \param[in] val Data to pack
///
/// \returns Size of data when packed (in bytes)
///
inline size_t pksizeof(_In_ const size_t &val);
///
/// Unpacks a size_t
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Variable to receive unpacked value
///
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ size_t &val);
#endif
///
/// Packs a string
///
/// \param[inout] cursor Memory cursor
/// \param[in] val String to pack
///
template<class _Elem, class _Traits, class _Ax> inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::basic_string<_Elem, _Traits, _Ax> &val);
///
/// Returns packed size of a string
///
/// \param[in] val String to pack
///
/// \returns Size of data when packed (in bytes)
///
template<class _Elem, class _Traits, class _Ax> inline size_t pksizeof(const std::basic_string<_Elem, _Traits, _Ax> &val);
///
/// Unpacks a string
///
/// \param[inout] cursor Memory cursor
/// \param[out] val String to unpack to
///
template<class _Elem, class _Traits, class _Ax> inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::basic_string<_Elem, _Traits, _Ax> &val);
///
/// Packs a wide string
///
/// \param[inout] cursor Memory cursor
/// \param[in] val String to pack
///
template<class _Traits, class _Ax> inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::basic_string<wchar_t, _Traits, _Ax> &val);
///
/// Returns packed size of a wide string
///
/// \param[in] val String to pack
///
/// \returns Size of data when packed (in bytes)
///
template<class _Traits, class _Ax> inline size_t pksizeof(const std::basic_string<wchar_t, _Traits, _Ax> &val);
///
/// Unpacks a wide string
///
/// \param[inout] cursor Memory cursor
/// \param[out] val String to unpack to
///
template<class _Traits, class _Ax> inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::basic_string<wchar_t, _Traits, _Ax> &val);
///
/// Packs a vector
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Vector to pack
///
template<class _Ty, class _Ax> inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::vector<_Ty, _Ax> &val);
///
/// Returns packed size of a vector
///
/// \param[in] val Vector to pack
///
/// \returns Size of data when packed (in bytes)
///
template<class _Ty, class _Ax> inline size_t pksizeof(const std::vector<_Ty, _Ax> &val);
///
/// Unpacks a vector
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Vector to unpack to
///
template<class _Ty, class _Ax> inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::vector<_Ty, _Ax> &val);
///
/// Packs a list
///
/// \param[inout] cursor Memory cursor
/// \param[in] val List to pack
///
template<class _Ty, class _Ax> inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::list<_Ty, _Ax> &val);
///
/// Returns packed size of a list
///
/// \param[in] val List to pack
///
/// \returns Size of data when packed (in bytes)
///
template<class _Ty, class _Ax> inline size_t pksizeof(const std::list<_Ty, _Ax> &val);
///
/// Unpacks a list
///
/// \param[inout] cursor Memory cursor
/// \param[out] val List to unpack to
///
template<class _Ty, class _Ax> inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::list<_Ty, _Ax> &val);
///
/// Packs a std::unique_ptr
///
/// \param[inout] cursor Memory cursor
/// \param[in] val std::unique_ptr to pack
///
template<class _Ty, class _Dx> inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::unique_ptr<_Ty, _Dx> &val);
///
/// Returns packed size of a std::unique_ptr
///
/// \param[in] val std::unique_ptr to pack
///
/// \returns Size of data when packed (in bytes)
///
template<class _Ty, class _Dx> inline size_t pksizeof(const std::unique_ptr<_Ty, _Dx> &val);
/////
///// Unpacks a std::unique_ptr
/////
///// \note Not generally unpackable, since we do not know, how to create a new instance of unique_ptr.
/////
///// \param[inout] cursor Memory cursor
///// \param[out] val std::unique_ptr to unpack to
/////
//template<class _Ty, class _Dx> inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::unique_ptr<_Ty, _Dx> &val);
///
/// Packs a certificate context
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Certificate context to pack
///
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const winstd::cert_context &val);
///
/// Returns packed size of a certificate context
///
/// \param[in] val Certificate context to pack
///
/// \returns Size of data when packed (in bytes)
///
inline size_t pksizeof(const winstd::cert_context &val);
///
/// Unpacks a certificate context
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Certificate context to unpack to
///
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ winstd::cert_context &val);
///
/// Packs an EAP method type
///
/// \param[inout] cursor Memory cursor
/// \param[in] val EAP method type to pack
///
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const winstd::eap_type_t &val);
///
/// Returns packed size of an EAP method type
///
/// \param[in] val EAP method type to pack
///
/// \returns Size of data when packed (in bytes)
///
inline size_t pksizeof(const winstd::eap_type_t &val);
///
/// Unpacks an EAP method type
///
/// \param[inout] cursor Memory cursor
/// \param[out] val EAP method type to unpack to
///
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ winstd::eap_type_t &val);
///
/// Packs a BLOB
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Variable with data to pack
///
template<size_t N> inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const eap::sanitizing_blob_f<N> &val);
///
/// Returns packed size of a BLOB
///
/// \param[in] val Data to pack
///
/// \returns Size of data when packed (in bytes)
///
template<size_t N> inline size_t pksizeof(_In_ const eap::sanitizing_blob_f<N> &val);
///
/// Unpacks a BLOB
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Variable to receive unpacked value
///
template<size_t N> inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ eap::sanitizing_blob_f<N> &val);
///
/// Packs a GUID
///
/// \param[inout] cursor Memory cursor
/// \param[in] val Variable with data to pack
///
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const GUID &val);
///
/// Returns packed size of a GUID
///
/// \param[in] val Data to pack
///
/// \returns Size of data when packed (in bytes)
///
inline size_t pksizeof(_In_ const GUID &val);
///
/// Unpacks a GUID
///
/// \param[inout] cursor Memory cursor
/// \param[out] val Variable to receive unpacked value
///
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ GUID &val);
#ifndef htonll
///
/// Converts an unsigned __int64 from host to TCP/IP network byte order.
///
/// \param[in] val A 64-bit unsigned number in host byte order
///
/// \returns The value in TCP/IP's network byte order
///
inline unsigned __int64 htonll(unsigned __int64 val);
#endif
///
/// Converts an 24-bit integer from host to TCP/IP network byte order.
///
/// \param[in ] val A 24-bit unsigned number in host byte order
/// \param[out] out A 24-bit unsigned number in network byte order
///
inline void hton24(_In_ unsigned int val, _Out_ unsigned char out[3]);
#pragma once
namespace eap
{
struct cursor_out
{
typedef unsigned char *ptr_type;
ptr_type ptr; ///< Pointer to first data unwritten
ptr_type ptr_end; ///< Pointer to the end of available memory
};
struct cursor_in
{
typedef const unsigned char *ptr_type;
ptr_type ptr; ///< Pointer to first data unread
ptr_type ptr_end; ///< Pointer to the end of BLOB
};
#pragma pack(push)
#pragma pack(1)
template<size_t N>
struct __declspec(novtable) sanitizing_blob_f<N>
{
unsigned char data[N]; ///< BLOB data
///
/// Constructor
///
inline sanitizing_blob_f()
{
}
///
/// Copies a BLOB
///
/// \param[in] other BLOB to copy from
///
inline sanitizing_blob_f(_In_ const sanitizing_blob_f<N> &other)
{
memcpy(data, other.data, N);
}
///
/// Moves the BLOB
///
/// \param[inout] other Zero-initialized BLOB to move from
///
inline sanitizing_blob_f(_Inout_ sanitizing_blob_zf<N> &&other)
{
memcpy(data, other.data, N);
memset(other.data, 0, N);
}
///
/// Destructor
///
inline ~sanitizing_blob_f()
{
SecureZeroMemory(data, N);
}
///
/// Copies a BLOB
///
/// \param[in] other BLOB to copy from
///
/// \returns Reference to this object
///
inline sanitizing_blob_f& operator=(_In_ const sanitizing_blob_f<N> &other)
{
if (this != std::addressof(other))
memcpy(data, other.data, N);
return *this;
}
///
/// Moves the BLOB
///
/// \param[inout] other Zero-initialized BLOB to copy from
///
/// \returns Reference to this object
///
inline sanitizing_blob_f& operator=(_Inout_ sanitizing_blob_zf<N> &&other)
{
if (this != std::addressof(other)) {
memcpy(data, other.data, N);
memset(other.data, 0, N);
}
return *this;
}
///
/// Is BLOB not equal to?
///
/// \param[in] other BLOB to compare against
///
/// \returns
/// - \c true when BLOBs are not equal;
/// - \c false otherwise
///
inline bool operator!=(_In_ const sanitizing_blob_f<N> &other) const
{
return !operator==(other);
}
///
/// Is BLOB equal to?
///
/// \param[in] other BLOB to compare against
///
/// \returns
/// - \c true when BLOBs are equal;
/// - \c false otherwise
///
inline bool operator==(_In_ const sanitizing_blob_f<N> &other) const
{
for (size_t i = 0; i < N; i++)
if (data[i] != other.data[i]) return false;
return true;
}
///
/// Is BLOB empty?
///
/// \returns
/// - \c true when BLOB is all-zero;
/// - \c false otherwise
///
inline bool empty() const
{
for (size_t i = 0; i < N; i++)
if (data[i]) return false;
return true;
}
///
/// Zero the BLOB
///
inline void clear()
{
memset(data, 0, N);
}
};
template<size_t N>
struct __declspec(novtable) sanitizing_blob_zf<N> : sanitizing_blob_f<N>
{
///
/// Constructor
///
inline sanitizing_blob_zf() : sanitizing_blob_f<N>()
{
memset(data, 0, N);
}
///
/// Copies a BLOB
///
/// \param[in] other BLOB to copy from
///
inline sanitizing_blob_zf(_In_ const sanitizing_blob_f<N> &other) :
sanitizing_blob_f<N>(other)
{
}
///
/// Moves the BLOB
///
/// \param[inout] other Zero-initialized BLOB to move from
///
inline sanitizing_blob_zf(_Inout_ sanitizing_blob_zf<N> &&other) :
sanitizing_blob_f<N>(std::move(other))
{
}
};
#pragma pack(pop)
#pragma warning(suppress: 4480)
enum diameter_avp_flags_t : unsigned char {
diameter_avp_flag_vendor = 0x80, ///< Vendor-ID present
diameter_avp_flag_mandatory = 0x40, ///< Mandatory
};
#pragma pack(push)
#pragma pack(1)
struct diameter_avp_header
{
unsigned char code[4]; ///< AVP Code
unsigned char flags; ///< AVP Flags
unsigned char length[3]; ///< AVP Length
};
struct diameter_avp_header_ven : public diameter_avp_header
{
unsigned char vendor[4]; ///< Vendor-ID
};
#pragma pack(pop)
class packet
{
public:
///
/// Constructs an empty packet
///
packet();
///
/// Copies a packet
///
/// \param[in] other Packet to copy from
///
packet(_In_ const packet &other);
///
/// Moves a packet
///
/// \param[in] other Packet to move from
///
packet(_Inout_ packet &&other);
///
/// Copies a packet
///
/// \param[in] other Packet to copy from
///
/// \returns Reference to this object
///
packet& operator=(_In_ const packet &other);
///
/// Moves a packet
///
/// \param[in] other Packet to move from
///
/// \returns Reference to this object
///
packet& operator=(_Inout_ packet &&other);
///
/// Empty the packet
///
virtual void clear();
public:
EapCode m_code; ///< Packet code
unsigned char m_id; ///< Packet ID
sanitizing_blob m_data; ///< Packet data
};
}
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const bool &val)
{
eap::cursor_out::ptr_type ptr_end = cursor.ptr + 1;
assert(ptr_end <= cursor.ptr_end);
*cursor.ptr = val ? 1 : 0;
cursor.ptr = ptr_end;
}
inline size_t pksizeof(_In_ const bool &val)
{
UNREFERENCED_PARAMETER(val);
return sizeof(unsigned char);
}
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ bool &val)
{
eap::cursor_in::ptr_type ptr_end = cursor.ptr + 1;
assert(ptr_end <= cursor.ptr_end);
val = *cursor.ptr ? true : false;
cursor.ptr = ptr_end;
}
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const unsigned char &val)
{
eap::cursor_out::ptr_type ptr_end = cursor.ptr + 1;
assert(ptr_end <= cursor.ptr_end);
*cursor.ptr = val;
cursor.ptr = ptr_end;
}
inline size_t pksizeof(_In_ const unsigned char &val)
{
UNREFERENCED_PARAMETER(val);
return sizeof(unsigned char);
}
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ unsigned char &val)
{
eap::cursor_in::ptr_type ptr_end = cursor.ptr + 1;
assert(ptr_end <= cursor.ptr_end);
val = *cursor.ptr;
cursor.ptr = ptr_end;
}
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const unsigned int &val)
{
eap::cursor_out::ptr_type ptr_end = cursor.ptr + sizeof(unsigned int);
assert(ptr_end <= cursor.ptr_end);
*(unsigned int*)cursor.ptr = val;
cursor.ptr = ptr_end;
}
inline size_t pksizeof(_In_ const unsigned int &val)
{
UNREFERENCED_PARAMETER(val);
return sizeof(unsigned int);
}
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ unsigned int &val)
{
eap::cursor_in::ptr_type ptr_end = cursor.ptr + sizeof(unsigned int);
assert(ptr_end <= cursor.ptr_end);
val = *(unsigned int*)cursor.ptr;
cursor.ptr = ptr_end;
}
#ifdef _WIN64
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const size_t &val)
{
eap::cursor_out::ptr_type ptr_end = cursor.ptr + sizeof(size_t);
assert(ptr_end <= cursor.ptr_end);
*(size_t*)cursor.ptr = val;
cursor.ptr = ptr_end;
}
inline size_t pksizeof(_In_ const size_t &val)
{
UNREFERENCED_PARAMETER(val);
return sizeof(size_t);
}
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ size_t &val)
{
eap::cursor_in::ptr_type ptr_end = cursor.ptr + sizeof(size_t);
assert(ptr_end <= cursor.ptr_end);
val = *(size_t*)cursor.ptr;
cursor.ptr = ptr_end;
}
#endif
template<class _Elem, class _Traits, class _Ax>
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::basic_string<_Elem, _Traits, _Ax> &val)
{
std::basic_string<_Elem, _Traits, _Ax>::size_type count = val.length();
assert(strlen(val.c_str()) == count); // String should not contain zero terminators.
size_t size = sizeof(_Elem)*(count + 1);
eap::cursor_out::ptr_type ptr_end = cursor.ptr + size;
assert(ptr_end <= cursor.ptr_end);
memcpy(cursor.ptr, (const _Elem*)val.c_str(), size);
cursor.ptr = ptr_end;
}
template<class _Elem, class _Traits, class _Ax>
inline size_t pksizeof(const std::basic_string<_Elem, _Traits, _Ax> &val)
{
return sizeof(_Elem)*(val.length() + 1);
}
template<class _Elem, class _Traits, class _Ax>
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::basic_string<_Elem, _Traits, _Ax> &val)
{
size_t count_max = cursor.ptr_end - cursor.ptr;
std::basic_string<_Elem, _Traits, _Ax>::size_type count = strnlen((const _Elem*&)cursor.ptr, count_max);
assert(count < count_max); // String should be zero terminated.
val.assign((const _Elem*&)cursor.ptr, count);
cursor.ptr += sizeof(_Elem)*(count + 1);
}
template<class _Traits, class _Ax>
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::basic_string<wchar_t, _Traits, _Ax> &val)
{
std::string val_utf8;
WideCharToMultiByte(CP_UTF8, 0, val.c_str(), (int)val.length(), val_utf8, NULL, NULL);
cursor << val_utf8;
}
template<class _Traits, class _Ax>
inline size_t pksizeof(const std::basic_string<wchar_t, _Traits, _Ax> &val)
{
return sizeof(char)*(WideCharToMultiByte(CP_UTF8, 0, val.c_str(), (int)val.length(), NULL, 0, NULL, NULL) + 1);
}
template<class _Traits, class _Ax>
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::basic_string<wchar_t, _Traits, _Ax> &val)
{
std::string val_utf8;
cursor >> val_utf8;
MultiByteToWideChar(CP_UTF8, 0, val_utf8.c_str(), (int)val_utf8.length(), val);
}
template<class _Ty, class _Ax>
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::vector<_Ty, _Ax> &val)
{
std::vector<_Ty, _Ax>::size_type count = val.size();
cursor << count;
// Since we do not know wheter vector elements are primitives or objects, iterate instead of memcpy.
// For performance critical vectors of flat opaque data types write specialized template instantiation.
for (std::vector<_Ty, _Ax>::size_type i = 0; i < count; i++)
cursor << val[i];
}
template<class _Ty, class _Ax>
inline size_t pksizeof(const std::vector<_Ty, _Ax> &val)
{
// Since we do not know wheter vector elements are primitives or objects, iterate instead of sizeof().
// For performance critical vectors of flat opaque data types write specialized template instantiation.
std::vector<_Ty, _Ax>::size_type count = val.size();
size_t size = pksizeof(count);
for (std::vector<_Ty, _Ax>::size_type i = 0; i < count; i++)
size += pksizeof(val[i]);
return size;
}
template<class _Ty, class _Ax>
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::vector<_Ty, _Ax> &val)
{
std::vector<_Ty, _Ax>::size_type count;
cursor >> count;
// Since we do not know wheter vector elements are primitives or objects, iterate instead of assign().
// For performance critical vectors of flat opaque data types write specialized template instantiation.
val.clear();
val.reserve(count);
for (std::vector<_Ty, _Ax>::size_type i = 0; i < count; i++) {
_Ty el;
cursor >> el;
val.push_back(el);
}
}
template<class _Ty, class _Ax>
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::list<_Ty, _Ax> &val)
{
std::list<_Ty, _Ax>::size_type count = val.size();
cursor << count;
// Since we do not know wheter list elements are primitives or objects, iterate instead of memcpy.
// For performance critical vectors of flat opaque data types write specialized template instantiation.
for (std::list<_Ty, _Ax>::const_iterator i = val.cbegin(), i_end = val.cend(); i != i_end; ++i)
cursor << *i;
}
template<class _Ty, class _Ax>
inline size_t pksizeof(const std::list<_Ty, _Ax> &val)
{
// Since we do not know wheter list elements are primitives or objects, iterate instead of sizeof().
// For performance critical vectors of flat opaque data types write specialized template instantiation.
std::list<_Ty, _Ax>::size_type count = val.size();
size_t size = pksizeof(count);
for (std::list<_Ty, _Ax>::const_iterator i = val.cbegin(), i_end = val.cend(); i != i_end; ++i)
size += pksizeof(*i);
return size;
}
template<class _Ty, class _Ax>
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ std::list<_Ty, _Ax> &val)
{
std::list<_Ty, _Ax>::size_type count;
cursor >> count;
// Since we do not know wheter list elements are primitives or objects, iterate instead of assign().
// For performance critical vectors of flat opaque data types write specialized template instantiation.
val.clear();
for (std::list<_Ty, _Ax>::size_type i = 0; i < count; i++) {
_Ty el;
cursor >> el;
val.push_back(el);
}
}
template<class _Ty, class _Dx>
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const std::unique_ptr<_Ty, _Dx> &val)
{
if (val) {
cursor << true;
cursor << *val;
} else
cursor << false;
}
template<class _Ty, class _Dx>
inline size_t pksizeof(const std::unique_ptr<_Ty, _Dx> &val)
{
return
val ?
pksizeof(true) +
pksizeof(*val) :
pksizeof(false);
}
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const winstd::cert_context &val)
{
if (val) {
cursor << (unsigned int)val->dwCertEncodingType;
cursor << (unsigned int)val->cbCertEncoded ;
eap::cursor_out::ptr_type ptr_end = cursor.ptr + val->cbCertEncoded;
assert(ptr_end <= cursor.ptr_end);
memcpy(cursor.ptr, val->pbCertEncoded, val->cbCertEncoded);
cursor.ptr = ptr_end;
} else {
cursor << (unsigned int)0;
cursor << (unsigned int)0;
}
}
inline size_t pksizeof(const winstd::cert_context &val)
{
return
val ?
pksizeof((unsigned int)val->dwCertEncodingType) +
pksizeof((unsigned int)val->cbCertEncoded ) +
val->cbCertEncoded :
pksizeof((unsigned int)0) +
pksizeof((unsigned int)0);
}
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ winstd::cert_context &val)
{
DWORD dwCertEncodingType;
cursor >> (unsigned int&)dwCertEncodingType;
DWORD dwCertEncodedSize;
cursor >> (unsigned int&)dwCertEncodedSize;
if (dwCertEncodedSize) {
eap::cursor_in::ptr_type ptr_end = cursor.ptr + dwCertEncodedSize;
assert(ptr_end <= cursor.ptr_end);
val.create(dwCertEncodingType, (BYTE*)cursor.ptr, dwCertEncodedSize);
cursor.ptr = ptr_end;
} else
val.free();
}
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const winstd::eap_type_t &val)
{
cursor << (unsigned char)val;
}
inline size_t pksizeof(_In_ const winstd::eap_type_t &val)
{
return pksizeof((unsigned char)val);
}
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ winstd::eap_type_t &val)
{
cursor >> (unsigned char&)val;
}
template<size_t N>
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const eap::sanitizing_blob_f<N> &val)
{
eap::cursor_out::ptr_type ptr_end = cursor.ptr + sizeof(eap::sanitizing_blob_f<N>);
assert(ptr_end <= cursor.ptr_end);
memcpy(cursor.ptr, val.data, sizeof(eap::sanitizing_blob_f<N>));
cursor.ptr = ptr_end;
}
template<size_t N>
inline size_t pksizeof(_In_ const eap::sanitizing_blob_f<N> &val)
{
UNREFERENCED_PARAMETER(val);
return sizeof(eap::sanitizing_blob_f<N>);
}
template<size_t N>
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ eap::sanitizing_blob_f<N> &val)
{
eap::cursor_in::ptr_type ptr_end = cursor.ptr + sizeof(eap::sanitizing_blob_f<N>);
assert(ptr_end <= cursor.ptr_end);
memcpy(val.data, cursor.ptr, sizeof(eap::sanitizing_blob_f<N>));
cursor.ptr = ptr_end;
}
inline void operator<<(_Inout_ eap::cursor_out &cursor, _In_ const GUID &val)
{
eap::cursor_out::ptr_type ptr_end = cursor.ptr + sizeof(GUID);
assert(ptr_end <= cursor.ptr_end);
memcpy(cursor.ptr, &val, sizeof(GUID));
cursor.ptr = ptr_end;
}
inline size_t pksizeof(_In_ const GUID &val)
{
UNREFERENCED_PARAMETER(val);
return sizeof(GUID);
}
inline void operator>>(_Inout_ eap::cursor_in &cursor, _Out_ GUID &val)
{
eap::cursor_in::ptr_type ptr_end = cursor.ptr + sizeof(GUID);
assert(ptr_end <= cursor.ptr_end);
memcpy(&val, cursor.ptr, sizeof(GUID));
cursor.ptr = ptr_end;
}
#ifndef htonll
inline unsigned __int64 htonll(unsigned __int64 val)
{
return
(unsigned __int64)htonl((u_long)((val >> 32) & 0xffffffff)) |
(unsigned __int64)htonl((u_long)((val ) & 0xffffffff)) << 32;
}
#endif
inline void hton24(_In_ unsigned int val, _Out_ unsigned char out[3])
{
assert(val <= 0xffffff);
out[0] = (val >> 16) & 0xff;
out[1] = (val >> 8) & 0xff;
out[2] = (val ) & 0xff;
}
#endif