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byte reverse IP addresses returned for P25's OTA; fix conventional registration packets not properly transmitting; continued work on P25 data refactoring;

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pull/61/head
Bryan Biedenkapp 2 years ago
parent 6dad7186c4
commit d281844c74
13 changed files with 234 additions and 124 deletions
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12
src/common/Utils.h
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@ -23,6 +23,7 @@
#include "common/Defines.h" #include "common/Defines.h"
#include <cstring>
#include <string> #include <string>
#include <arpa/inet.h> #include <arpa/inet.h>
@ -110,7 +111,16 @@ inline std::string __IP_FROM_UINT(const uint32_t& value) {
inline uint32_t __IP_FROM_STR(const std::string& value) { inline uint32_t __IP_FROM_STR(const std::string& value) {
struct sockaddr_in sa; struct sockaddr_in sa;
inet_pton(AF_INET, value.c_str(), &(sa.sin_addr)); inet_pton(AF_INET, value.c_str(), &(sa.sin_addr));
return (uint32_t)sa.sin_addr.s_addr;
uint8_t ip[4U];
::memset(ip, 0x00U, 4U);
ip[3U] = ((uint32_t)sa.sin_addr.s_addr >> 24) & 0xFFU;
ip[2U] = ((uint32_t)sa.sin_addr.s_addr >> 16) & 0xFFU;
ip[1U] = ((uint32_t)sa.sin_addr.s_addr >> 8) & 0xFFU;
ip[0U] = ((uint32_t)sa.sin_addr.s_addr >> 0) & 0xFFU;
return (ip[0U] << 24) | (ip[1U] << 16) | (ip[2U] << 8) | (ip[3U] << 0);
} }
/** /**

7
src/common/p25/P25Defines.h
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@ -341,7 +341,7 @@ namespace p25
EXT_ADDR = 0x1FU, //! Extended Addressing EXT_ADDR = 0x1FU, //! Extended Addressing
REG = 0x20U, //! Registration CONV_DATA_REG = 0x20U, //! Registration
UNENC_KMM = 0x28U, //! Unencrypted KMM UNENC_KMM = 0x28U, //! Unencrypted KMM
ENC_KMM = 0x29U, //! Encrypted KMM ENC_KMM = 0x29U, //! Encrypted KMM
@ -384,7 +384,7 @@ namespace p25
enum : uint8_t { enum : uint8_t {
CONNECT = 0x00U, //! Connect CONNECT = 0x00U, //! Connect
DISCONNECT = 0x01U, //! Disconnect DISCONNECT = 0x01U, //! Disconnect
ACCPT = 0x04U, //! Accept ACCEPT = 0x04U, //! Accept
DENY = 0x05U //! Deny DENY = 0x05U //! Deny
}; };
} }
@ -396,6 +396,9 @@ namespace p25
/** @brief 510 byte MTU */ /** @brief 510 byte MTU */
const uint8_t SNDCP_MTU_510 = 2U; const uint8_t SNDCP_MTU_510 = 2U;
/** @brief Default NSAPI */
const uint8_t DEFAULT_NSAPI = 1U;
/** @brief SNDCP PDU Message Type */ /** @brief SNDCP PDU Message Type */
namespace SNDCP_PDUType { namespace SNDCP_PDUType {
/** @brief SNDCP PDU Message Type */ /** @brief SNDCP PDU Message Type */

7
src/common/p25/data/DataHeader.cpp
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@ -322,13 +322,14 @@ uint32_t DataHeader::getData(uint8_t* buffer) const
void DataHeader::calculateLength(uint32_t packetLength) void DataHeader::calculateLength(uint32_t packetLength)
{ {
uint32_t len = packetLength + 4; // packet length + CRC32 uint32_t len = packetLength + 4U; // packet length + CRC32
uint32_t blockLen = (m_fmt == PDUFormatType::CONFIRMED) ? P25_PDU_CONFIRMED_DATA_LENGTH_BYTES : P25_PDU_UNCONFIRMED_LENGTH_BYTES; uint32_t blockLen = (m_fmt == PDUFormatType::CONFIRMED) ? P25_PDU_CONFIRMED_DATA_LENGTH_BYTES : P25_PDU_UNCONFIRMED_LENGTH_BYTES;
m_padLength = blockLen - (len % blockLen);
if (len > blockLen) { if (len > blockLen) {
m_padLength = blockLen - (len % blockLen);
m_blocksToFollow = (uint8_t)ceilf((float)len / (float)blockLen); m_blocksToFollow = (uint8_t)ceilf((float)len / (float)blockLen);
} else { } else {
m_padLength = 0U;
m_blocksToFollow = 1U; m_blocksToFollow = 1U;
} }
} }
@ -337,7 +338,7 @@ void DataHeader::calculateLength(uint32_t packetLength)
uint32_t DataHeader::calculatePadLength(uint8_t fmt, uint32_t packetLength) uint32_t DataHeader::calculatePadLength(uint8_t fmt, uint32_t packetLength)
{ {
uint32_t len = packetLength + 4; // packet length + CRC32 uint32_t len = packetLength + 4U; // packet length + CRC32
if (fmt == PDUFormatType::CONFIRMED) { if (fmt == PDUFormatType::CONFIRMED) {
return P25_PDU_CONFIRMED_DATA_LENGTH_BYTES - (len % P25_PDU_CONFIRMED_DATA_LENGTH_BYTES); return P25_PDU_CONFIRMED_DATA_LENGTH_BYTES - (len % P25_PDU_CONFIRMED_DATA_LENGTH_BYTES);
} }

2
src/common/p25/lc/tsbk/ISP_SNDCP_CH_REQ.cpp
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@ -46,7 +46,7 @@ bool ISP_SNDCP_CH_REQ::decode(const uint8_t* data, bool rawTSBK)
ulong64_t tsbkValue = TSBK::toValue(tsbk); ulong64_t tsbkValue = TSBK::toValue(tsbk);
m_dataServiceOptions = (uint8_t)((tsbkValue >> 56) & 0xFFU); // Data Service Options m_dataServiceOptions = (uint8_t)((tsbkValue >> 56) & 0xFFU); // Data Service Options
m_dataAccessControl = (uint32_t)((tsbkValue >> 40) & 0xFFFFFFFFU); // Data Access Control m_dataAccessControl = (uint32_t)((tsbkValue >> 40) & 0xFFFFU); // Data Access Control
m_srcId = (uint32_t)(tsbkValue & 0xFFFFFFU); // Source Radio Address m_srcId = (uint32_t)(tsbkValue & 0xFFFFFFU); // Source Radio Address
return true; return true;

2
src/common/p25/lc/tsbk/ISP_SNDCP_CH_REQ.h
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@ -69,7 +69,7 @@ namespace p25
/** /**
* @brief SNDCP Data Access Control * @brief SNDCP Data Access Control
*/ */
__PROPERTY(uint32_t, dataAccessControl, DataAccessControl); __PROPERTY(uint16_t, dataAccessControl, DataAccessControl);
__COPY(ISP_SNDCP_CH_REQ); __COPY(ISP_SNDCP_CH_REQ);
}; };

3
src/common/p25/lc/tsbk/OSP_SNDCP_CH_ANN.cpp
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@ -26,6 +26,7 @@ using namespace p25::lc::tsbk;
OSP_SNDCP_CH_ANN::OSP_SNDCP_CH_ANN() : TSBK(), OSP_SNDCP_CH_ANN::OSP_SNDCP_CH_ANN() : TSBK(),
m_implicitChannel(false), m_implicitChannel(false),
m_sndcpAutoAccess(true), m_sndcpAutoAccess(true),
m_sndcpRequestedAccess(true),
m_sndcpDAC(1U) m_sndcpDAC(1U)
{ {
m_lco = TSBKO::OSP_SNDCP_CH_ANN; m_lco = TSBKO::OSP_SNDCP_CH_ANN;
@ -64,7 +65,7 @@ void OSP_SNDCP_CH_ANN::encode(uint8_t* data, bool rawTSBK, bool noTrellis)
(m_encrypted ? 0x40U : 0x00U); // Encrypted Flag (m_encrypted ? 0x40U : 0x00U); // Encrypted Flag
tsbkValue = (tsbkValue << 8) + tsbkValue = (tsbkValue << 8) +
(m_sndcpAutoAccess ? 0x80U : 0x00U) + // Autonomous Access (m_sndcpAutoAccess ? 0x80U : 0x00U) + // Autonomous Access
(m_sndcpAutoAccess ? 0x40U : 0x00U); // Requested Access (m_sndcpRequestedAccess ? 0x40U : 0x00U); // Requested Access
if (m_implicitChannel) { if (m_implicitChannel) {
tsbkValue = (tsbkValue << 16) + 0xFFFFU; tsbkValue = (tsbkValue << 16) + 0xFFFFU;

1
src/common/p25/lc/tsbk/OSP_SNDCP_CH_ANN.h
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@ -72,6 +72,7 @@ namespace p25
private: private:
bool m_sndcpAutoAccess; bool m_sndcpAutoAccess;
bool m_sndcpRequestedAccess;
uint16_t m_sndcpDAC; uint16_t m_sndcpDAC;
__COPY(OSP_SNDCP_CH_ANN); __COPY(OSP_SNDCP_CH_ANN);

4
src/common/p25/sndcp/SNDCPCtxActReject.cpp
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@ -36,9 +36,7 @@ bool SNDCPCtxActReject::decode(const uint8_t* data)
{ {
assert(data != nullptr); assert(data != nullptr);
SNDCPPacket::decodeHeader(data, false); /* stub */
m_rejectCode = data[1U]; // Reject Code
return true; return true;
} }

14
src/common/p25/sndcp/SNDCPCtxActRequest.cpp
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@ -63,19 +63,7 @@ void SNDCPCtxActRequest::encode(uint8_t* data)
{ {
assert(data != nullptr); assert(data != nullptr);
SNDCPPacket::encodeHeader(data, true); /* stub */
data[1U] = ((m_nsapi << 4U) & 0xF0U) + // NSAPI
(m_nat & 0x0FU); // NAT
data[2U] = (uint8_t)((m_ipAddress >> 24) & 0xFFU); // IP Address
data[3U] = (uint8_t)((m_ipAddress >> 16) & 0xFFU);
data[4U] = (uint8_t)((m_ipAddress >> 8) & 0xFFU);
data[5U] = (uint8_t)((m_ipAddress >> 0) & 0xFFU);
data[6U] = ((m_dsut << 4U) & 0xF0U); // Data Subscriber Unit Type
data[9U] = (m_mdpco & 0x0FU); // MDPCO
} }
/* Internal helper to copy the the class. */ /* Internal helper to copy the the class. */

2
src/host/Host.cpp
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@ -453,7 +453,7 @@ int Host::run()
bool p25Verbose = p25Protocol["verbose"].as<bool>(true); bool p25Verbose = p25Protocol["verbose"].as<bool>(true);
bool p25Debug = p25Protocol["debug"].as<bool>(false); bool p25Debug = p25Protocol["debug"].as<bool>(false);
LogInfo(" TDU Preamble before Voice: %u", tduPreambleCount); LogInfo(" TDU Preamble before Voice/Data: %u", tduPreambleCount);
LogInfo(" Dump Packet Data: %s", p25DumpDataPacket ? "yes" : "no"); LogInfo(" Dump Packet Data: %s", p25DumpDataPacket ? "yes" : "no");
LogInfo(" Repeat Packet Data: %s", p25RepeatDataPacket ? "yes" : "no"); LogInfo(" Repeat Packet Data: %s", p25RepeatDataPacket ? "yes" : "no");
LogInfo(" Dump TSBK Data: %s", p25DumpTsbkData ? "yes" : "no"); LogInfo(" Dump TSBK Data: %s", p25DumpTsbkData ? "yes" : "no");

2
src/host/p25/packet/ControlSignaling.cpp
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@ -329,7 +329,7 @@ bool ControlSignaling::process(uint8_t* data, uint32_t len, std::unique_ptr<lc::
ISP_SNDCP_CH_REQ* isp = static_cast<ISP_SNDCP_CH_REQ*>(tsbk.get()); ISP_SNDCP_CH_REQ* isp = static_cast<ISP_SNDCP_CH_REQ*>(tsbk.get());
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_TSDU_STR ", %s, dataServiceOptions = $%02X, dataAccessControl = %u, srcId = %u", LogMessage(LOG_RF, P25_TSDU_STR ", %s, dataServiceOptions = $%02X, dataAccessControl = $%04X, srcId = %u",
tsbk->toString(true).c_str(), isp->getDataServiceOptions(), isp->getDataAccessControl(), srcId); tsbk->toString(true).c_str(), isp->getDataServiceOptions(), isp->getDataAccessControl(), srcId);
} }

281
src/host/p25/packet/Data.cpp
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@ -34,7 +34,8 @@ using namespace p25::packet;
// Constants // Constants
// --------------------------------------------------------------------------- // ---------------------------------------------------------------------------
const uint32_t CONN_WAIT_TIMEOUT = 1U; const uint8_t MAX_PDU_RETRY_CNT = 2U;
const uint32_t CONV_REG_WAIT_TIMEOUT = 750U; // ms
const uint32_t SNDCP_READY_TIMEOUT = 10U; const uint32_t SNDCP_READY_TIMEOUT = 10U;
const uint32_t SNDCP_STANDBY_TIMEOUT = 60U; const uint32_t SNDCP_STANDBY_TIMEOUT = 60U;
@ -159,7 +160,7 @@ bool Data::process(uint8_t* data, uint32_t len)
// an RSP or a registration service // an RSP or a registration service
if ((m_rfDataHeader.getFormat() != PDUFormatType::AMBT) && if ((m_rfDataHeader.getFormat() != PDUFormatType::AMBT) &&
(m_rfDataHeader.getFormat() != PDUFormatType::RSP) && (m_rfDataHeader.getFormat() != PDUFormatType::RSP) &&
(m_rfDataHeader.getSAP() != PDUSAP::REG)) { (m_rfDataHeader.getSAP() != PDUSAP::CONV_DATA_REG)) {
writeNetwork(0U, buffer, P25_PDU_FEC_LENGTH_BYTES, false); writeNetwork(0U, buffer, P25_PDU_FEC_LENGTH_BYTES, false);
} }
} }
@ -199,7 +200,7 @@ bool Data::process(uint8_t* data, uint32_t len)
// an RSP or a registration service // an RSP or a registration service
if ((m_rfDataHeader.getFormat() != PDUFormatType::AMBT) && if ((m_rfDataHeader.getFormat() != PDUFormatType::AMBT) &&
(m_rfDataHeader.getFormat() != PDUFormatType::RSP) && (m_rfDataHeader.getFormat() != PDUFormatType::RSP) &&
(m_rfDataHeader.getSAP() != PDUSAP::REG)) { (m_rfDataHeader.getSAP() != PDUSAP::CONV_DATA_REG)) {
writeNetwork(1U, buffer, P25_PDU_FEC_LENGTH_BYTES, false); writeNetwork(1U, buffer, P25_PDU_FEC_LENGTH_BYTES, false);
} }
@ -291,7 +292,7 @@ bool Data::process(uint8_t* data, uint32_t len)
// an RSP or a registration service // an RSP or a registration service
if ((m_rfDataHeader.getFormat() != PDUFormatType::AMBT) && if ((m_rfDataHeader.getFormat() != PDUFormatType::AMBT) &&
(m_rfDataHeader.getFormat() != PDUFormatType::RSP) && (m_rfDataHeader.getFormat() != PDUFormatType::RSP) &&
(m_rfDataHeader.getSAP() != PDUSAP::REG)) { (m_rfDataHeader.getSAP() != PDUSAP::CONV_DATA_REG)) {
writeNetwork(m_rfDataBlockCnt, buffer, P25_PDU_FEC_LENGTH_BYTES, m_rfData[i].getLastBlock()); writeNetwork(m_rfDataBlockCnt, buffer, P25_PDU_FEC_LENGTH_BYTES, m_rfData[i].getLastBlock());
} }
@ -353,6 +354,13 @@ bool Data::process(uint8_t* data, uint32_t len)
if (m_rfDataHeader.getResponseClass() == PDUAckClass::ACK && m_rfDataHeader.getResponseType() == PDUAckType::ACK) { if (m_rfDataHeader.getResponseClass() == PDUAckClass::ACK && m_rfDataHeader.getResponseType() == PDUAckType::ACK) {
LogMessage(LOG_RF, P25_PDU_STR ", ISP, response, OSP ACK, llId = %u", LogMessage(LOG_RF, P25_PDU_STR ", ISP, response, OSP ACK, llId = %u",
m_rfDataHeader.getLLId()); m_rfDataHeader.getLLId());
if (m_retryPDUData != nullptr && m_retryPDUBitLength > 0U) {
delete m_retryPDUData;
m_retryPDUData = nullptr;
m_retryPDUBitLength = 0U;
m_retryCount = 0U;
}
} else { } else {
if (m_rfDataHeader.getResponseClass() == PDUAckClass::NACK) { if (m_rfDataHeader.getResponseClass() == PDUAckClass::NACK) {
switch (m_rfDataHeader.getResponseType()) { switch (m_rfDataHeader.getResponseType()) {
@ -377,6 +385,31 @@ bool Data::process(uint8_t* data, uint32_t len)
default: default:
break; break;
} }
} else if (m_rfDataHeader.getResponseClass() == PDUAckClass::ACK_RETRY) {
LogMessage(LOG_RF, P25_PDU_STR ", ISP, response, OSP ACK RETRY, llId = %u",
m_rfDataHeader.getLLId());
// really this is supposed to check the bit field in the included response
// and only return those bits -- but we're responding with the entire previous packet...
if (m_retryPDUData != nullptr && m_retryPDUBitLength > 0U) {
if (m_retryCount < MAX_PDU_RETRY_CNT) {
m_p25->writeRF_Preamble();
writeRF_PDU(m_retryPDUData, m_retryPDUBitLength, false, false, true);
m_retryCount++;
}
else {
delete m_retryPDUData;
m_retryPDUData = nullptr;
m_retryPDUBitLength = 0U;
m_retryCount = 0U;
LogMessage(LOG_RF, P25_PDU_STR ", ISP, response, OSP ACK RETRY, llId = %u, exceeded retries, undeliverable",
m_rfDataHeader.getLLId());
writeRF_PDU_Ack_Response(PDUAckClass::NACK, PDUAckType::NACK_UNDELIVERABLE, 0U, m_rfDataHeader.getLLId());
}
}
} }
} }
} }
@ -394,57 +427,21 @@ bool Data::process(uint8_t* data, uint32_t len)
else { else {
// handle standard P25 service access points // handle standard P25 service access points
switch (m_rfDataHeader.getSAP()) { switch (m_rfDataHeader.getSAP()) {
case PDUSAP::REG: case PDUSAP::CONV_DATA_REG:
{ {
uint8_t regType = (m_pduUserData[0] >> 4) & 0x0F; if (m_verbose) {
switch (regType) { LogMessage(LOG_RF, P25_PDU_STR ", CONV_DATA_REG (Conventional Data Registration), blocksToFollow = %u",
case PDURegType::CONNECT: m_rfDataHeader.getBlocksToFollow());
{
uint32_t llId = (m_pduUserData[1U] << 16) + (m_pduUserData[2U] << 8) + m_pduUserData[3U];
ulong64_t ipAddr = (m_pduUserData[8U] << 24) + (m_pduUserData[9U] << 16) +
(m_pduUserData[10U] << 8) + m_pduUserData[11U];
if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", CONNECT (Registration Request Connect), llId = %u, ipAddr = %s", llId, __IP_FROM_UINT(ipAddr).c_str());
}
m_connQueueTable[llId] = std::make_tuple(m_rfDataHeader.getMFId(), ipAddr);
m_connTimerTable[llId] = Timer(1000U, CONN_WAIT_TIMEOUT);
m_connTimerTable[llId].start();
} }
break;
case PDURegType::DISCONNECT:
{
uint32_t llId = (m_pduUserData[1U] << 16) + (m_pduUserData[2U] << 8) + m_pduUserData[3U];
if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", DISCONNECT (Registration Request Disconnect), llId = %u", llId);
}
if (hasLLIdFNEReg(llId)) { processConvDataReg();
// remove dynamic FNE registration table entry
try {
m_fneRegTable.at(llId);
m_fneRegTable.erase(llId);
}
catch (...) {
// stub
}
}
}
break;
default:
LogError(LOG_RF, "P25 unhandled PDU registration type, regType = $%02X", regType);
break;
}
} }
break; break;
case PDUSAP::SNDCP_CTRL_DATA: case PDUSAP::SNDCP_CTRL_DATA:
{ {
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", SNDCP_CTRL_DATA (SNDCP Control Data), lco = $%02X, blocksToFollow = %u", LogMessage(LOG_RF, P25_PDU_STR ", SNDCP_CTRL_DATA (SNDCP Control Data), blocksToFollow = %u",
m_rfDataHeader.getAMBTOpcode(), m_rfDataHeader.getBlocksToFollow()); m_rfDataHeader.getBlocksToFollow());
} }
processSNDCPControl(); processSNDCPControl();
@ -763,10 +760,10 @@ void Data::writeRF_PDU_User(data::DataHeader& dataHeader, data::DataHeader& seco
uint32_t blocksToFollow = dataHeader.getBlocksToFollow(); uint32_t blocksToFollow = dataHeader.getBlocksToFollow();
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", OSP, ack = %u, outbound = %u, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, packetLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, llId = %u", LogMessage(LOG_RF, P25_PDU_STR ", OSP, ack = %u, outbound = %u, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, packetLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, bitLength = %u, llId = %u",
dataHeader.getAckNeeded(), dataHeader.getOutbound(), dataHeader.getFormat(), dataHeader.getMFId(), dataHeader.getSAP(), dataHeader.getFullMessage(), dataHeader.getAckNeeded(), dataHeader.getOutbound(), dataHeader.getFormat(), dataHeader.getMFId(), dataHeader.getSAP(), dataHeader.getFullMessage(),
dataHeader.getBlocksToFollow(), dataHeader.getPadLength(), dataHeader.getPacketLength(), dataHeader.getNs(), dataHeader.getFSN(), dataHeader.getLastFragment(), dataHeader.getBlocksToFollow(), dataHeader.getPadLength(), dataHeader.getPacketLength(), dataHeader.getNs(), dataHeader.getFSN(), dataHeader.getLastFragment(),
dataHeader.getHeaderOffset(), dataHeader.getLLId()); dataHeader.getHeaderOffset(), bitLength, dataHeader.getLLId());
} }
// generate the PDU header and 1/2 rate Trellis // generate the PDU header and 1/2 rate Trellis
@ -790,10 +787,10 @@ void Data::writeRF_PDU_User(data::DataHeader& dataHeader, data::DataHeader& seco
blocksToFollow--; blocksToFollow--;
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", OSP, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, llId = %u", LogMessage(LOG_RF, P25_PDU_STR ", OSP, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, bitLength = %u, llId = %u",
secondHeader.getFormat(), secondHeader.getMFId(), secondHeader.getSAP(), secondHeader.getFullMessage(), secondHeader.getFormat(), secondHeader.getMFId(), secondHeader.getSAP(), secondHeader.getFullMessage(),
secondHeader.getBlocksToFollow(), secondHeader.getPadLength(), secondHeader.getNs(), secondHeader.getFSN(), secondHeader.getLastFragment(), secondHeader.getBlocksToFollow(), secondHeader.getPadLength(), secondHeader.getNs(), secondHeader.getFSN(), secondHeader.getLastFragment(),
secondHeader.getHeaderOffset(), secondHeader.getLLId()); secondHeader.getHeaderOffset(), bitLength, secondHeader.getLLId());
} }
} }
@ -853,25 +850,28 @@ void Data::writeRF_PDU_User(data::DataHeader& dataHeader, data::DataHeader& seco
void Data::clock(uint32_t ms) void Data::clock(uint32_t ms)
{ {
// clock all the connect timers // clock all the conventional registration timers
std::vector<uint32_t> connToClear = std::vector<uint32_t>(); std::vector<uint32_t> connToClear = std::vector<uint32_t>();
for (auto entry : m_connQueueTable) { for (auto entry : m_convRegTimerTable) {
uint32_t llId = entry.first; uint32_t llId = entry.first;
m_connTimerTable[llId].clock(ms); m_convRegTimerTable[llId].clock(ms);
if (m_connTimerTable[llId].isRunning() && m_connTimerTable[llId].hasExpired()) { if (m_convRegTimerTable[llId].isRunning() && m_convRegTimerTable[llId].hasExpired()) {
connToClear.push_back(llId); connToClear.push_back(llId);
} }
} }
// handle PDU connection registration if (connToClear.size() > 0) {
m_p25->writeRF_Preamble();
}
// handle PDU conventional connection registration
for (uint32_t llId : connToClear) { for (uint32_t llId : connToClear) {
uint8_t mfId = std::get<0>(m_connQueueTable[llId]); uint32_t ipAddr = m_convRegQueueTable[llId];
uint64_t ipAddr = std::get<1>(m_connQueueTable[llId]);
if (!acl::AccessControl::validateSrcId(llId)) { if (!acl::AccessControl::validateSrcId(llId)) {
LogWarning(LOG_RF, P25_PDU_STR ", DENY (Registration Response Deny), llId = %u, ipAddr = %s", llId, __IP_FROM_UINT(ipAddr).c_str()); LogWarning(LOG_RF, P25_PDU_STR ", DENY (Registration Response Deny), llId = %u, ipAddr = %s", llId, __IP_FROM_UINT(ipAddr).c_str());
writeRF_PDU_Reg_Response(PDURegType::DENY, mfId, llId, ipAddr); writeRF_PDU_Reg_Response(PDURegType::DENY, llId, ipAddr);
} }
else { else {
if (!hasLLIdFNEReg(llId)) { if (!hasLLIdFNEReg(llId)) {
@ -880,13 +880,14 @@ void Data::clock(uint32_t ms)
} }
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", ACCPT (Registration Response Accept), llId = %u, ipAddr = %s", llId, __IP_FROM_UINT(ipAddr).c_str()); LogMessage(LOG_RF, P25_PDU_STR ", ACCEPT (Registration Response Accept), llId = %u, ipAddr = %s", llId, __IP_FROM_UINT(ipAddr).c_str());
} }
writeRF_PDU_Reg_Response(PDURegType::ACCPT, mfId, llId, ipAddr); writeRF_PDU_Reg_Response(PDURegType::ACCEPT, llId, ipAddr);
} }
m_connQueueTable.erase(llId); m_convRegQueueTable.erase(llId);
m_convRegTimerTable.erase(llId);
} }
if (m_p25->m_sndcpSupport) { if (m_p25->m_sndcpSupport) {
@ -1017,9 +1018,7 @@ void Data::sndcpReset(uint32_t llId, bool callTerm)
std::unique_ptr<lc::TDULC> lc = std::make_unique<lc::tdulc::LC_CALL_TERM>(); std::unique_ptr<lc::TDULC> lc = std::make_unique<lc::tdulc::LC_CALL_TERM>();
m_p25->m_control->writeRF_TDULC(lc.get(), true); m_p25->m_control->writeRF_TDULC(lc.get(), true);
for (uint8_t i = 0U; i < 8U; i++) { m_p25->writeRF_Preamble();
m_p25->writeRF_TDU(true);
}
if (m_p25->m_notifyCC) { if (m_p25->m_notifyCC) {
m_p25->notifyCC_ReleaseGrant(llId); m_p25->notifyCC_ReleaseGrant(llId);
@ -1055,11 +1054,14 @@ Data::Data(Control* p25, bool dumpPDUData, bool repeatPDU, bool debug, bool verb
m_netDataBlockCnt(0U), m_netDataBlockCnt(0U),
m_netPDU(nullptr), m_netPDU(nullptr),
m_netPDUCount(0U), m_netPDUCount(0U),
m_retryPDUData(nullptr),
m_retryPDUBitLength(0U),
m_retryCount(0U),
m_pduUserData(nullptr), m_pduUserData(nullptr),
m_pduUserDataLength(0U), m_pduUserDataLength(0U),
m_fneRegTable(), m_fneRegTable(),
m_connQueueTable(), m_convRegQueueTable(),
m_connTimerTable(), m_convRegTimerTable(),
m_sndcpStateTable(), m_sndcpStateTable(),
m_sndcpReadyTimers(), m_sndcpReadyTimers(),
m_sndcpStandbyTimers(), m_sndcpStandbyTimers(),
@ -1082,8 +1084,9 @@ Data::Data(Control* p25, bool dumpPDUData, bool repeatPDU, bool debug, bool verb
::memset(m_pduUserData, 0x00U, P25_MAX_PDU_BLOCKS * P25_PDU_CONFIRMED_LENGTH_BYTES + 2U); ::memset(m_pduUserData, 0x00U, P25_MAX_PDU_BLOCKS * P25_PDU_CONFIRMED_LENGTH_BYTES + 2U);
m_fneRegTable.clear(); m_fneRegTable.clear();
m_connQueueTable.clear();
m_connTimerTable.clear(); m_convRegQueueTable.clear();
m_convRegTimerTable.clear();
m_sndcpStateTable.clear(); m_sndcpStateTable.clear();
m_sndcpReadyTimers.clear(); m_sndcpReadyTimers.clear();
@ -1098,9 +1101,68 @@ Data::~Data()
delete[] m_netData; delete[] m_netData;
delete[] m_rfPDU; delete[] m_rfPDU;
delete[] m_netPDU; delete[] m_netPDU;
if (m_retryPDUData != nullptr)
delete m_retryPDUData;
delete[] m_pduUserData; delete[] m_pduUserData;
} }
/* Helper used to process conventional data registration from PDU data. */
bool Data::processConvDataReg()
{
uint8_t regType = (m_pduUserData[0] >> 4) & 0x0F;
switch (regType) {
case PDURegType::CONNECT:
{
uint32_t llId = (m_pduUserData[1U] << 16) + (m_pduUserData[2U] << 8) + m_pduUserData[3U];
uint32_t ipAddr = (m_pduUserData[8U] << 24) + (m_pduUserData[9U] << 16) + (m_pduUserData[10U] << 8) + m_pduUserData[11U];
if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", CONNECT (Registration Request Connect), llId = %u, ipAddr = %s", llId, __IP_FROM_UINT(ipAddr).c_str());
}
m_convRegQueueTable[llId] = ipAddr;
m_convRegTimerTable[llId] = Timer(1000U, 0U, CONV_REG_WAIT_TIMEOUT);
m_convRegTimerTable[llId].start();
// acknowledge
writeRF_PDU_Ack_Response(PDUAckClass::ACK, PDUAckType::ACK, 0U, llId);
}
break;
case PDURegType::DISCONNECT:
{
uint32_t llId = (m_pduUserData[1U] << 16) + (m_pduUserData[2U] << 8) + m_pduUserData[3U];
if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", DISCONNECT (Registration Request Disconnect), llId = %u", llId);
}
// acknowledge
writeRF_PDU_Ack_Response(PDUAckClass::ACK, PDUAckType::ACK, 0U, llId);
if (hasLLIdFNEReg(llId)) {
// remove dynamic FNE registration table entry
try {
m_fneRegTable.at(llId);
m_fneRegTable.erase(llId);
}
catch (...) {
// stub
}
}
}
break;
default:
LogError(LOG_RF, "P25 unhandled PDU registration type, regType = $%02X", regType);
break;
}
return true;
}
/* Helper used to process SNDCP control data from PDU data. */ /* Helper used to process SNDCP control data from PDU data. */
bool Data::processSNDCPControl() bool Data::processSNDCPControl()
@ -1125,14 +1187,16 @@ bool Data::processSNDCPControl()
{ {
SNDCPCtxActRequest* isp = static_cast<SNDCPCtxActRequest*>(packet.get()); SNDCPCtxActRequest* isp = static_cast<SNDCPCtxActRequest*>(packet.get());
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", SNDCP context activation request, llId = %u, ipAddr = %s, nat = $%02X, dsut = $%02X, mdpco = $%02X", llId, LogMessage(LOG_RF, P25_PDU_STR ", SNDCP context activation request, llId = %u, nsapi = %u, ipAddr = %s, nat = $%02X, dsut = $%02X, mdpco = $%02X", llId,
__IP_FROM_UINT(isp->getIPAddress()).c_str(), isp->getNAT(), isp->getDSUT(), isp->getMDPCO()); isp->getNSAPI(), __IP_FROM_UINT(isp->getIPAddress()).c_str(), isp->getNAT(), isp->getDSUT(), isp->getMDPCO());
} }
m_p25->writeRF_Preamble();
DataHeader rspHeader = DataHeader(); DataHeader rspHeader = DataHeader();
rspHeader.setFormat(PDUFormatType::CONFIRMED); rspHeader.setFormat(PDUFormatType::CONFIRMED);
rspHeader.setMFId(MFG_STANDARD); rspHeader.setMFId(MFG_STANDARD);
rspHeader.setAckNeeded(true); rspHeader.setAckNeeded(false);
rspHeader.setOutbound(true); rspHeader.setOutbound(true);
rspHeader.setSAP(PDUSAP::SNDCP_CTRL_DATA); rspHeader.setSAP(PDUSAP::SNDCP_CTRL_DATA);
rspHeader.setNs(m_rfDataHeader.getNs()); rspHeader.setNs(m_rfDataHeader.getNs());
@ -1141,7 +1205,7 @@ bool Data::processSNDCPControl()
if (!isSNDCPInitialized(llId)) { if (!isSNDCPInitialized(llId)) {
std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>(); std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>();
osp->setNSAPI(packet->getNSAPI()); osp->setNSAPI(DEFAULT_NSAPI);
osp->setRejectCode(SNDCPRejectReason::SU_NOT_PROVISIONED); osp->setRejectCode(SNDCPRejectReason::SU_NOT_PROVISIONED);
osp->encode(pduUserData); osp->encode(pduUserData);
@ -1156,7 +1220,7 @@ bool Data::processSNDCPControl()
case SNDCPNAT::IPV4_STATIC_ADDR: case SNDCPNAT::IPV4_STATIC_ADDR:
{ {
std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>(); std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>();
osp->setNSAPI(packet->getNSAPI()); osp->setNSAPI(DEFAULT_NSAPI);
osp->setRejectCode(SNDCPRejectReason::STATIC_IP_ALLOCATION_UNSUPPORTED); osp->setRejectCode(SNDCPRejectReason::STATIC_IP_ALLOCATION_UNSUPPORTED);
osp->encode(pduUserData); osp->encode(pduUserData);
@ -1171,7 +1235,7 @@ bool Data::processSNDCPControl()
case SNDCPNAT::IPV4_DYN_ADDR: case SNDCPNAT::IPV4_DYN_ADDR:
{ {
std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>(); std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>();
osp->setNSAPI(packet->getNSAPI()); osp->setNSAPI(DEFAULT_NSAPI);
osp->setRejectCode(SNDCPRejectReason::DYN_IP_ALLOCATION_UNSUPPORTED); osp->setRejectCode(SNDCPRejectReason::DYN_IP_ALLOCATION_UNSUPPORTED);
osp->encode(pduUserData); osp->encode(pduUserData);
@ -1180,14 +1244,34 @@ bool Data::processSNDCPControl()
writeRF_PDU_User(rspHeader, rspHeader, false, pduUserData); writeRF_PDU_User(rspHeader, rspHeader, false, pduUserData);
sndcpReset(llId, true); sndcpReset(llId, true);
// TODO TODO TODO // TODO TODO TODO
/*
std::unique_ptr<SNDCPCtxActAccept> osp = std::make_unique<SNDCPCtxActAccept>();
osp->setNSAPI(DEFAULT_NSAPI);
osp->setReadyTimer(SNDCPReadyTimer::TEN_SECONDS);
osp->setStandbyTimer(SNDCPStandbyTimer::ONE_MINUTE);
osp->setNAT(SNDCPNAT::IPV4_DYN_ADDR);
osp->setIPAddress(__IP_FROM_STR(std::string("10.10.1.10")));
osp->setMTU(SNDCP_MTU_510);
osp->setMDPCO(isp->getMDPCO());
osp->encode(pduUserData);
rspHeader.calculateLength(13U);
writeRF_PDU_User(rspHeader, rspHeader, false, pduUserData);
m_sndcpStateTable[llId] = SNDCPState::STANDBY;
m_sndcpReadyTimers[llId].stop();
m_sndcpStandbyTimers[llId].start();
*/
} }
break; break;
default: default:
{ {
std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>(); std::unique_ptr<SNDCPCtxActReject> osp = std::make_unique<SNDCPCtxActReject>();
osp->setNSAPI(packet->getNSAPI()); osp->setNSAPI(DEFAULT_NSAPI);
osp->setRejectCode(SNDCPRejectReason::ANY_REASON); osp->setRejectCode(SNDCPRejectReason::ANY_REASON);
osp->encode(pduUserData); osp->encode(pduUserData);
@ -1243,11 +1327,29 @@ void Data::writeNetwork(const uint8_t currentBlock, const uint8_t *data, uint32_
/* Helper to write a P25 PDU packet. */ /* Helper to write a P25 PDU packet. */
void Data::writeRF_PDU(const uint8_t* pdu, uint32_t bitLength, bool noNulls, bool imm) void Data::writeRF_PDU(const uint8_t* pdu, uint32_t bitLength, bool noNulls, bool imm, bool ackRetry)
{ {
assert(pdu != nullptr); assert(pdu != nullptr);
assert(bitLength > 0U); assert(bitLength > 0U);
if (!ackRetry) {
if (m_retryPDUData != nullptr)
delete m_retryPDUData;
// store PDU for ACK RETRY logic
m_retryCount = 0U;
m_retryPDUBitLength = bitLength;
uint32_t retryByteLength = bitLength / 8U;
if ((retryByteLength % 8U) > 0U)
retryByteLength++;
m_retryPDUData = new uint8_t[retryByteLength];
::memcpy(m_retryPDUData, pdu, retryByteLength);
} else {
LogMessage(LOG_RF, P25_PDU_STR ", OSP, ack retry, bitLength = %u",
m_retryPDUBitLength);
}
uint8_t data[P25_PDU_FRAME_LENGTH_BYTES + 2U]; uint8_t data[P25_PDU_FRAME_LENGTH_BYTES + 2U];
::memset(data, 0x00U, P25_PDU_FRAME_LENGTH_BYTES + 2U); ::memset(data, 0x00U, P25_PDU_FRAME_LENGTH_BYTES + 2U);
@ -1283,9 +1385,7 @@ void Data::writeRF_PDU(const uint8_t* pdu, uint32_t bitLength, bool noNulls, boo
// transmit TDUs; only if control data isn't being transmitted // transmit TDUs; only if control data isn't being transmitted
if (!m_p25->m_ccRunning) { if (!m_p25->m_ccRunning) {
for (uint8_t i = 0U; i < 8U; i++) { m_p25->writeRF_Preamble();
m_p25->writeRF_TDU(true);
}
} }
} }
@ -1304,10 +1404,10 @@ void Data::writeNet_PDU_Buffered()
uint32_t blocksToFollow = m_netDataHeader.getBlocksToFollow(); uint32_t blocksToFollow = m_netDataHeader.getBlocksToFollow();
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_NET, P25_PDU_STR ", OSP, ack = %u, outbound = %u, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, llId = %u", LogMessage(LOG_NET, P25_PDU_STR ", OSP, ack = %u, outbound = %u, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, bitLength = %u, llId = %u",
m_netDataHeader.getAckNeeded(), m_netDataHeader.getOutbound(), m_netDataHeader.getFormat(), m_netDataHeader.getMFId(), m_netDataHeader.getSAP(), m_netDataHeader.getFullMessage(), m_netDataHeader.getAckNeeded(), m_netDataHeader.getOutbound(), m_netDataHeader.getFormat(), m_netDataHeader.getMFId(), m_netDataHeader.getSAP(), m_netDataHeader.getFullMessage(),
m_netDataHeader.getBlocksToFollow(), m_netDataHeader.getPadLength(), m_netDataHeader.getNs(), m_netDataHeader.getFSN(), m_netDataHeader.getLastFragment(), m_netDataHeader.getBlocksToFollow(), m_netDataHeader.getPadLength(), m_netDataHeader.getNs(), m_netDataHeader.getFSN(), m_netDataHeader.getLastFragment(),
m_netDataHeader.getHeaderOffset(), m_netDataHeader.getLLId()); m_netDataHeader.getHeaderOffset(), bitLength, m_netDataHeader.getLLId());
} }
// generate the PDU header and 1/2 rate Trellis // generate the PDU header and 1/2 rate Trellis
@ -1402,10 +1502,10 @@ void Data::writeRF_PDU_Buffered()
uint32_t blocksToFollow = m_rfDataHeader.getBlocksToFollow(); uint32_t blocksToFollow = m_rfDataHeader.getBlocksToFollow();
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", OSP, ack = %u, outbound = %u, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, llId = %u", LogMessage(LOG_RF, P25_PDU_STR ", OSP, ack = %u, outbound = %u, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, bitLength = %u, llId = %u",
m_rfDataHeader.getAckNeeded(), m_rfDataHeader.getOutbound(), m_rfDataHeader.getFormat(), m_rfDataHeader.getMFId(), m_rfDataHeader.getSAP(), m_rfDataHeader.getFullMessage(), m_rfDataHeader.getAckNeeded(), m_rfDataHeader.getOutbound(), m_rfDataHeader.getFormat(), m_rfDataHeader.getMFId(), m_rfDataHeader.getSAP(), m_rfDataHeader.getFullMessage(),
m_rfDataHeader.getBlocksToFollow(), m_rfDataHeader.getPadLength(), m_rfDataHeader.getNs(), m_rfDataHeader.getFSN(), m_rfDataHeader.getLastFragment(), m_rfDataHeader.getBlocksToFollow(), m_rfDataHeader.getPadLength(), m_rfDataHeader.getNs(), m_rfDataHeader.getFSN(), m_rfDataHeader.getLastFragment(),
m_rfDataHeader.getHeaderOffset(), m_rfDataHeader.getLLId()); m_rfDataHeader.getHeaderOffset(), bitLength, m_rfDataHeader.getLLId());
} }
// generate the PDU header and 1/2 rate Trellis // generate the PDU header and 1/2 rate Trellis
@ -1429,10 +1529,10 @@ void Data::writeRF_PDU_Buffered()
blocksToFollow--; blocksToFollow--;
if (m_verbose) { if (m_verbose) {
LogMessage(LOG_RF, P25_PDU_STR ", OSP, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, llId = %u", LogMessage(LOG_RF, P25_PDU_STR ", OSP, fmt = $%02X, mfId = $%02X, sap = $%02X, fullMessage = %u, blocksToFollow = %u, padLength = %u, n = %u, seqNo = %u, lastFragment = %u, hdrOffset = %u, bitLength = %u, llId = %u",
m_rfSecondHeader.getFormat(), m_rfSecondHeader.getMFId(), m_rfSecondHeader.getSAP(), m_rfSecondHeader.getFullMessage(), m_rfSecondHeader.getFormat(), m_rfSecondHeader.getMFId(), m_rfSecondHeader.getSAP(), m_rfSecondHeader.getFullMessage(),
m_rfSecondHeader.getBlocksToFollow(), m_rfSecondHeader.getPadLength(), m_rfSecondHeader.getNs(), m_rfSecondHeader.getFSN(), m_rfSecondHeader.getLastFragment(), m_rfSecondHeader.getBlocksToFollow(), m_rfSecondHeader.getPadLength(), m_rfSecondHeader.getNs(), m_rfSecondHeader.getFSN(), m_rfSecondHeader.getLastFragment(),
m_rfSecondHeader.getHeaderOffset(), m_rfSecondHeader.getLLId()); m_rfSecondHeader.getHeaderOffset(), bitLength, m_rfSecondHeader.getLLId());
} }
} }
@ -1487,9 +1587,9 @@ void Data::writeRF_PDU_Buffered()
/* Helper to write a PDU registration response. */ /* Helper to write a PDU registration response. */
void Data::writeRF_PDU_Reg_Response(uint8_t regType, uint8_t mfId, uint32_t llId, uint32_t ipAddr) void Data::writeRF_PDU_Reg_Response(uint8_t regType, uint32_t llId, uint32_t ipAddr)
{ {
if ((regType != PDURegType::ACCPT) && (regType != PDURegType::DENY)) if ((regType != PDURegType::ACCEPT) && (regType != PDURegType::DENY))
return; return;
uint8_t pduUserData[P25_MAX_PDU_BLOCKS * P25_PDU_UNCONFIRMED_LENGTH_BYTES]; uint8_t pduUserData[P25_MAX_PDU_BLOCKS * P25_PDU_UNCONFIRMED_LENGTH_BYTES];
@ -1497,10 +1597,9 @@ void Data::writeRF_PDU_Reg_Response(uint8_t regType, uint8_t mfId, uint32_t llId
DataHeader rspHeader = DataHeader(); DataHeader rspHeader = DataHeader();
rspHeader.setFormat(PDUFormatType::CONFIRMED); rspHeader.setFormat(PDUFormatType::CONFIRMED);
rspHeader.setMFId(mfId);
rspHeader.setAckNeeded(true); rspHeader.setAckNeeded(true);
rspHeader.setOutbound(true); rspHeader.setOutbound(true);
rspHeader.setSAP(PDUSAP::REG); rspHeader.setSAP(PDUSAP::CONV_DATA_REG);
rspHeader.setLLId(llId); rspHeader.setLLId(llId);
rspHeader.setBlocksToFollow(1U); rspHeader.setBlocksToFollow(1U);
@ -1508,7 +1607,7 @@ void Data::writeRF_PDU_Reg_Response(uint8_t regType, uint8_t mfId, uint32_t llId
pduUserData[1U] = (llId >> 16) & 0xFFU; // Logical Link ID pduUserData[1U] = (llId >> 16) & 0xFFU; // Logical Link ID
pduUserData[2U] = (llId >> 8) & 0xFFU; pduUserData[2U] = (llId >> 8) & 0xFFU;
pduUserData[3U] = (llId >> 0) & 0xFFU; pduUserData[3U] = (llId >> 0) & 0xFFU;
if (regType == PDURegType::ACCPT) { if (regType == PDURegType::ACCEPT) {
pduUserData[8U] = (ipAddr >> 24) & 0xFFU; // IP Address pduUserData[8U] = (ipAddr >> 24) & 0xFFU; // IP Address
pduUserData[9U] = (ipAddr >> 16) & 0xFFU; pduUserData[9U] = (ipAddr >> 16) & 0xFFU;
pduUserData[10U] = (ipAddr >> 8) & 0xFFU; pduUserData[10U] = (ipAddr >> 8) & 0xFFU;

21
src/host/p25/packet/Data.h
Unescape View File

@ -141,13 +141,17 @@ namespace p25
uint8_t* m_netPDU; uint8_t* m_netPDU;
uint32_t m_netPDUCount; uint32_t m_netPDUCount;
uint8_t* m_retryPDUData;
uint32_t m_retryPDUBitLength;
uint8_t m_retryCount;
uint8_t* m_pduUserData; uint8_t* m_pduUserData;
uint32_t m_pduUserDataLength; uint32_t m_pduUserDataLength;
std::unordered_map<uint32_t, ulong64_t> m_fneRegTable; std::unordered_map<uint32_t, uint32_t> m_fneRegTable;
std::unordered_map<uint32_t, std::tuple<uint8_t, ulong64_t>> m_connQueueTable; std::unordered_map<uint32_t, uint32_t> m_convRegQueueTable;
std::unordered_map<uint32_t, Timer> m_connTimerTable; std::unordered_map<uint32_t, Timer> m_convRegTimerTable;
std::unordered_map<uint32_t, defines::SNDCPState::E> m_sndcpStateTable; std::unordered_map<uint32_t, defines::SNDCPState::E> m_sndcpStateTable;
std::unordered_map<uint32_t, Timer> m_sndcpReadyTimers; std::unordered_map<uint32_t, Timer> m_sndcpReadyTimers;
@ -173,6 +177,11 @@ namespace p25
*/ */
~Data(); ~Data();
/**
* @brief Helper used to process conventional data registration from PDU data.
* @returns bool True, if SNDCP control data was processed, otherwise false.
*/
bool processConvDataReg();
/** /**
* @brief Helper used to process SNDCP control data from PDU data. * @brief Helper used to process SNDCP control data from PDU data.
* @returns bool True, if SNDCP control data was processed, otherwise false. * @returns bool True, if SNDCP control data was processed, otherwise false.
@ -194,8 +203,9 @@ namespace p25
* @param bitlength Length of PDU in bits. * @param bitlength Length of PDU in bits.
* @param noNulls Flag indicating no trailing nulls should be transmitted. * @param noNulls Flag indicating no trailing nulls should be transmitted.
* @param imm Flag indicating the PDU should be written to the immediate queue. * @param imm Flag indicating the PDU should be written to the immediate queue.
* @param ackRetry Flag indicating the PDU is being sent as an acknowledged retry.
*/ */
void writeRF_PDU(const uint8_t* pdu, uint32_t bitLength, bool noNulls = false, bool imm = false); void writeRF_PDU(const uint8_t* pdu, uint32_t bitLength, bool noNulls = false, bool imm = false, bool ackRetry = false);
/** /**
* @brief Helper to write a network P25 PDU packet. * @brief Helper to write a network P25 PDU packet.
* This will take buffered network PDU data and repeat it over the air. * This will take buffered network PDU data and repeat it over the air.
@ -209,11 +219,10 @@ namespace p25
/** /**
* @brief Helper to write a PDU registration response. * @brief Helper to write a PDU registration response.
* @param regType Registration Response. * @param regType Registration Response.
* @param mfId Manufacturer ID.
* @param llId Logical Link ID. * @param llId Logical Link ID.
* @param ipAddr * @param ipAddr
*/ */
void writeRF_PDU_Reg_Response(uint8_t regType, uint8_t mfId, uint32_t llId, uint32_t ipAddr); void writeRF_PDU_Reg_Response(uint8_t regType, uint32_t llId, uint32_t ipAddr);
/** /**
* @brief Helper to write a PDU acknowledge response. * @brief Helper to write a PDU acknowledge response.
* @param ackClass Acknowledgement Class. * @param ackClass Acknowledgement Class.

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