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dvmhost/tests/fne/FNENetwork_Tests.cpp

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// SPDX-License-Identifier: GPL-2.0-only
/*
* Digital Voice Modem - Test Suite
* GPLv2 Open Source. Use is subject to license terms.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
*
* Copyright (C) 2026 Bryan Biedenkapp, N2PLL
*
*/
#include <catch2/catch_test_macros.hpp>
#include "fne/FNETestHooks.h"
#include "fne/HostFNE.h"
#include "fne/network/callhandler/TagAnalogData.h"
#include "fne/network/UnitRouteRegistry.h"
#include "common/analog/AnalogDefines.h"
#include "common/BitManipulation.h"
#include "common/lookups/AffiliationLookup.h"
#include "common/lookups/PeerListLookup.h"
#include "common/lookups/RadioIdLookup.h"
#include "common/lookups/TalkgroupRulesLookup.h"
#include <algorithm>
#include <chrono>
#include <condition_variable>
#include <mutex>
#include <string>
#include <unordered_map>
#include <vector>
// ---------------------------------------------------------------------------
// Class Declaration
// ---------------------------------------------------------------------------
/**
* @brief Test harness for FNE network tests.
*/
class FNEHarness {
public:
/**
* @brief Initializes a new instance of the FNEHarness class.
*/
FNEHarness() :
configFile("fne-test.yml"),
host(configFile),
radios("", 0U, true, false),
talkgroups("", 0U, true, false),
traffic(&host, "127.0.0.1", 62031U, 999999U, "test-password", "test-fne",
false, false, false, false, true, true, true, true, true,
0U, false, true, true, 5U, 10U, 2U),
metadata(&host, &traffic, "127.0.0.1", 62032U, 2U)
{
traffic.setLookups(&radios, nullptr, &talkgroups, nullptr, nullptr, nullptr);
}
/**
* @brief Finalizes a instance of the FNEHarness class.
*/
~FNEHarness()
{
FNETestHooks::clearPeerWriteCapture(traffic);
FNETestHooks::clearMetadataWriteCapture(metadata);
FNETestHooks::clearPeers(traffic);
}
std::string configFile;
HostFNE host;
lookups::RadioIdLookup radios;
lookups::TalkgroupRulesLookup talkgroups;
network::TrafficNetwork traffic;
network::MetadataNetwork metadata;
};
TEST_CASE("FNE metadata returns subscriber operation and P25 status results",
"[fne][metadata][subscriber-operations]")
{
constexpr uint32_t CONSOLE_PEER_ID = 1001U;
constexpr uint32_t RADIO_PEER_ID = 2001U;
constexpr uint32_t SUBSCRIBER_ID = 123456U;
FNEHarness harness;
network::FNEPeerConnection& console = FNETestHooks::addPeer(
harness.traffic, CONSOLE_PEER_ID, network::NET_STAT_RUNNING, true);
console.peerClass(network::PEER_CONN_CLASS_CONSOLE);
const uint64_t operationId = harness.traffic.subscriberOperations().start(
network::SubscriberOperationStore::Protocol::P25,
network::SubscriberOperationStore::Kind::STATUS_QUERY, SUBSCRIBER_ID, RADIO_PEER_ID);
REQUIRE(operationId != 0U);
REQUIRE(harness.traffic.subscriberOperations().addP25Status(
SUBSCRIBER_ID, RADIO_PEER_ID, 0x1234U));
std::vector<uint8_t> responsePayload;
uint8_t responseFunction = network::NET_FUNC::ILLEGAL;
uint8_t responseSubFunction = network::NET_SUBFUNC::NOP;
FNETestHooks::captureMetadataWrite(harness.metadata, responsePayload,
responseFunction, responseSubFunction);
json::object operationRequest = json::object();
operationRequest["operationId"].set<uint64_t>(operationId);
const std::string operationJson = json::value(operationRequest).serialize();
std::vector<uint8_t> requestPayload(11U + operationJson.length(), 0U);
::memcpy(requestPayload.data() + 11U, operationJson.data(), operationJson.length());
FNETestHooks::dispatchMetadata(harness.traffic, harness.metadata,
network::NET_FUNC::SUBSCRIBER_OP, network::NET_SUBFUNC::SUBSCRIBER_OP_OPERATION,
CONSOLE_PEER_ID, requestPayload);
REQUIRE(responsePayload.size() > 11U);
CHECK(responseFunction == network::NET_FUNC::SUBSCRIBER_OP);
CHECK(responseSubFunction == network::NET_SUBFUNC::SUBSCRIBER_OP_OPERATION);
json::value operationResponseValue;
REQUIRE(json::parse(operationResponseValue,
std::string(reinterpret_cast<const char*>(responsePayload.data() + 11U),
responsePayload.size() - 11U))
.empty());
REQUIRE(operationResponseValue.is<json::object>());
json::object& operationResponse = operationResponseValue.get<json::object>();
CHECK(operationResponse["found"].get<bool>());
CHECK(operationResponse["operationId"].get<uint64_t>() == operationId);
CHECK(operationResponse["state"].get<std::string>() == "succeeded");
CHECK(operationResponse["resultValue"].get<uint16_t>() == 0x1234U);
json::object statusRequest = json::object();
statusRequest["subscriberId"].set<uint32_t>(SUBSCRIBER_ID);
const std::string statusJson = json::value(statusRequest).serialize();
requestPayload.assign(11U + statusJson.length(), 0U);
::memcpy(requestPayload.data() + 11U, statusJson.data(), statusJson.length());
responsePayload.clear();
FNETestHooks::dispatchMetadata(harness.traffic, harness.metadata,
network::NET_FUNC::SUBSCRIBER_OP, network::NET_SUBFUNC::SUBSCRIBER_OP_P25_STATUS,
CONSOLE_PEER_ID, requestPayload);
REQUIRE(responsePayload.size() > 11U);
CHECK(responseSubFunction == network::NET_SUBFUNC::SUBSCRIBER_OP_P25_STATUS);
json::value statusResponseValue;
REQUIRE(json::parse(statusResponseValue,
std::string(reinterpret_cast<const char*>(responsePayload.data() + 11U),
responsePayload.size() - 11U))
.empty());
REQUIRE(statusResponseValue.is<json::object>());
json::object& statusResponse = statusResponseValue.get<json::object>();
CHECK(statusResponse["found"].get<bool>());
CHECK(statusResponse["subscriberId"].get<uint32_t>() == SUBSCRIBER_ID);
CHECK(statusResponse["status"].get<uint16_t>() == 0x1234U);
CHECK(statusResponse["solicited"].get<bool>());
}
TEST_CASE("FNE metadata starts subscriber operations before transmission",
"[fne][metadata][subscriber-operations]")
{
constexpr uint32_t CONSOLE_PEER_ID = 1001U;
constexpr uint32_t RADIO_PEER_ID = 2001U;
constexpr uint32_t SUBSCRIBER_ID = 123456U;
const uint8_t dmrSlot = 1U;
FNEHarness harness;
network::FNEPeerConnection& console = FNETestHooks::addPeer(
harness.traffic, CONSOLE_PEER_ID, network::NET_STAT_RUNNING, true);
console.peerClass(network::PEER_CONN_CLASS_CONSOLE);
FNETestHooks::addPeer(harness.traffic, RADIO_PEER_ID, network::NET_STAT_RUNNING, true);
std::vector<uint8_t> responsePayload;
uint8_t responseFunction = network::NET_FUNC::ILLEGAL;
uint8_t responseSubFunction = network::NET_SUBFUNC::NOP;
FNETestHooks::captureMetadataWrite(harness.metadata, responsePayload,
responseFunction, responseSubFunction);
std::vector<uint32_t> peerWrites;
FNETestHooks::capturePeerWrites(harness.traffic, peerWrites);
json::object request = json::object();
request["protocol"].set<std::string>("p25");
request["operation"].set<std::string>("radio-check");
request["targetId"].set<uint32_t>(SUBSCRIBER_ID);
request["peerId"].set<uint32_t>(RADIO_PEER_ID);
const std::string requestJson = json::value(request).serialize();
std::vector<uint8_t> requestPayload(11U + requestJson.length(), 0U);
::memcpy(requestPayload.data() + 11U, requestJson.data(), requestJson.length());
FNETestHooks::dispatchMetadata(harness.traffic, harness.metadata,
network::NET_FUNC::SUBSCRIBER_OP, network::NET_SUBFUNC::SUBSCRIBER_OP_START,
CONSOLE_PEER_ID, requestPayload);
REQUIRE(responsePayload.size() > 11U);
CHECK(responseFunction == network::NET_FUNC::SUBSCRIBER_OP);
CHECK(responseSubFunction == network::NET_SUBFUNC::SUBSCRIBER_OP_START);
REQUIRE(peerWrites.size() == 1U);
CHECK(peerWrites.front() == RADIO_PEER_ID);
json::value responseValue;
REQUIRE(json::parse(responseValue,
std::string(reinterpret_cast<const char*>(responsePayload.data() + 11U),
responsePayload.size() - 11U))
.empty());
REQUIRE(responseValue.is<json::object>());
json::object& response = responseValue.get<json::object>();
CHECK(response["found"].get<bool>());
CHECK(response["state"].get<std::string>() == "pending");
CHECK(response["targetId"].get<uint32_t>() == SUBSCRIBER_ID);
CHECK(response["peerId"].get<uint32_t>() == RADIO_PEER_ID);
const uint64_t operationId = response["operationId"].get<uint64_t>();
network::SubscriberOperationStore::Operation operation;
REQUIRE(harness.traffic.subscriberOperations().get(operationId, operation));
CHECK(operation.kind == network::SubscriberOperationStore::Kind::RADIO_CHECK);
CHECK(operation.state == network::SubscriberOperationStore::State::PENDING);
request["protocol"].set<std::string>("dmr");
request["slot"].set<uint8_t>(dmrSlot);
const std::string dmrRequestJson = json::value(request).serialize();
requestPayload.assign(11U + dmrRequestJson.length(), 0U);
::memcpy(requestPayload.data() + 11U, dmrRequestJson.data(), dmrRequestJson.length());
responsePayload.clear();
peerWrites.clear();
FNETestHooks::dispatchMetadata(harness.traffic, harness.metadata,
network::NET_FUNC::SUBSCRIBER_OP, network::NET_SUBFUNC::SUBSCRIBER_OP_START,
CONSOLE_PEER_ID, requestPayload);
REQUIRE(responsePayload.size() > 11U);
REQUIRE(peerWrites.size() == 1U);
CHECK(peerWrites.front() == RADIO_PEER_ID);
REQUIRE(json::parse(responseValue,
std::string(reinterpret_cast<const char*>(responsePayload.data() + 11U),
responsePayload.size() - 11U))
.empty());
REQUIRE(responseValue.is<json::object>());
json::object& dmrResponse = responseValue.get<json::object>();
CHECK(dmrResponse["found"].get<bool>());
const uint64_t dmrOperationId = dmrResponse["operationId"].get<uint64_t>();
REQUIRE(harness.traffic.subscriberOperations().get(dmrOperationId, operation));
CHECK(operation.protocol == network::SubscriberOperationStore::Protocol::DMR);
CHECK(operation.kind == network::SubscriberOperationStore::Kind::RADIO_CHECK);
CHECK(operation.state == network::SubscriberOperationStore::State::PENDING);
}
TEST_CASE("FNE consumes radio-check responses without peer fanout",
"[fne][subscriber-operations][routing]")
{
constexpr uint32_t SOURCE_PEER_ID = 1001U;
constexpr uint32_t OTHER_PEER_ID = 1002U;
constexpr uint32_t SUBSCRIBER_ID = 123456U;
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER_ID, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_PEER_ID, network::NET_STAT_RUNNING, true);
const network::SubscriberOperationStore::Protocol storeProtocol =
protocol == FNETestHooks::ParrotProtocol::DMR ? network::SubscriberOperationStore::Protocol::DMR : network::SubscriberOperationStore::Protocol::P25;
const uint64_t operationId = harness.traffic.subscriberOperations().start(storeProtocol,
network::SubscriberOperationStore::Kind::RADIO_CHECK, SUBSCRIBER_ID, SOURCE_PEER_ID);
REQUIRE(operationId != 0U);
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
CHECK_FALSE(FNETestHooks::processRadioCheckResponse(
harness.traffic, protocol, SOURCE_PEER_ID, SUBSCRIBER_ID));
CHECK(writes.empty());
network::SubscriberOperationStore::Operation operation;
REQUIRE(harness.traffic.subscriberOperations().get(operationId, operation));
CHECK(operation.state == network::SubscriberOperationStore::State::SUCCEEDED);
CHECK(operation.peerId == SOURCE_PEER_ID);
}
}
TEST_CASE("FNE unit route registry timestamps learned routes", "[fne][routing][u2u][registry]")
{
network::UnitRouteRegistry registry(1000U);
REQUIRE(registry.update(2001U, 1001U, 1001U, true, 100U));
CHECK(registry.resolve(2001U, 1099U).valid);
CHECK_FALSE(registry.resolve(2001U, 1100U).valid);
const std::vector<network::UnitRoute> expired = registry.expire(1100U);
REQUIRE(expired.size() == 1U);
CHECK(expired[0U].unitId == 2001U);
CHECK_FALSE(registry.resolve(2001U, 1100U).valid);
}
TEST_CASE("FNE explicit unit registrations do not expire", "[fne][routing][u2u][registry]")
{
network::UnitRouteRegistry registry(1000U);
REQUIRE(registry.update(2001U, 1001U, 1001U, false, 100U));
CHECK(registry.expire(100000U).empty());
const network::UnitRoute route = registry.resolve(2001U, 100000U);
REQUIRE(route.valid);
CHECK(route.peerId == 1001U);
CHECK_FALSE(route.learned);
}
TEST_CASE("FNE unit route registry validates, refreshes, and moves learned routes",
"[fne][routing][u2u][registry]")
{
network::UnitRouteRegistry registry(1000U);
CHECK_FALSE(registry.update(0U, 1001U, 1001U, true, 100U));
CHECK_FALSE(registry.update(2001U, 0U, 1001U, true, 100U));
REQUIRE(registry.update(2001U, 1001U, 0U, true, 100U));
CHECK(registry.resolve(2001U, 100U).ssrc == 1001U);
REQUIRE(registry.update(2001U, 1001U, 3001U, true, 900U));
CHECK(registry.resolve(2001U, 1899U).valid);
CHECK_FALSE(registry.resolve(2001U, 1900U).valid);
REQUIRE(registry.update(2001U, 1002U, 3002U, true, 2000U));
const network::UnitRoute moved = registry.resolve(2001U, 2000U);
REQUIRE(moved.valid);
CHECK(moved.peerId == 1002U);
CHECK(moved.ssrc == 3002U);
}
TEST_CASE("FNE explicit unit routes resist traffic learning and support removal",
"[fne][routing][u2u][registry]")
{
network::UnitRouteRegistry registry(1000U);
REQUIRE(registry.update(2001U, 1001U, 3001U, false, 100U));
CHECK_FALSE(registry.update(2001U, 1002U, 3002U, true, 200U));
REQUIRE(registry.update(2001U, 1001U, 3003U, true, 300U));
const network::UnitRoute route = registry.resolve(2001U, 5000U);
REQUIRE(route.valid);
CHECK(route.peerId == 1001U);
CHECK(route.ssrc == 3001U);
CHECK_FALSE(route.learned);
CHECK_FALSE(registry.erase(2001U, 1002U));
CHECK(registry.erase(2001U, 1001U));
CHECK_FALSE(registry.resolve(2001U, 5000U).valid);
}
TEST_CASE("FNE unit route snapshots replace only the selected peer",
"[fne][routing][u2u][registry]")
{
network::UnitRouteRegistry registry(1000U);
REQUIRE(registry.update(2001U, 1001U, 1001U, false, 100U));
REQUIRE(registry.update(2002U, 1001U, 1001U, false, 100U));
REQUIRE(registry.update(2003U, 1002U, 1002U, false, 100U));
registry.replacePeer(1001U, std::vector<uint32_t>{ 2002U, 2004U, 0U }, 3001U, 200U);
CHECK_FALSE(registry.resolve(2001U, 200U).valid);
CHECK(registry.resolve(2002U, 200U).peerId == 1001U);
CHECK(registry.resolve(2003U, 200U).peerId == 1002U);
CHECK(registry.resolve(2004U, 200U).ssrc == 3001U);
std::vector<uint32_t> removed = registry.erasePeer(1001U);
std::sort(removed.begin(), removed.end());
CHECK(removed == std::vector<uint32_t>{ 2002U, 2004U });
CHECK(registry.resolve(2003U, 200U).valid);
}
TEST_CASE("FNE orders each digital protocol stream without blocking independent calls", "[fne][ordering]")
{
FNEHarness harness;
FNETestHooks::startTrafficWorkerPool(harness.traffic);
const std::vector<FNETestHooks::ParrotProtocol> protocols{
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN
};
for (const FNETestHooks::ParrotProtocol protocol : protocols) {
std::mutex mutex;
std::condition_variable condition;
bool firstStarted = false;
bool releaseFirst = false;
bool secondStartedEarly = false;
bool independentCompleted = false;
uint32_t completed = 0U;
std::vector<uint32_t> streamOrder;
FNETestHooks::setOrderedFrameHandler(harness.traffic, protocol,
[&](const uint8_t*, uint32_t, uint32_t peerId, uint32_t, uint16_t,
uint32_t streamId, bool) {
std::unique_lock<std::mutex> lock(mutex);
if (peerId == 1002U && streamId == 3002U) {
independentCompleted = true;
completed++;
condition.notify_all();
return;
}
if (streamOrder.empty()) {
firstStarted = true;
condition.notify_all();
condition.wait(lock, [&]() { return releaseFirst; });
streamOrder.push_back(1U);
}
else {
secondStartedEarly = !releaseFirst;
streamOrder.push_back(2U);
}
completed++;
condition.notify_all();
});
const auto enqueueTime = std::chrono::steady_clock::now();
const bool firstQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1001U, 2001U, 3001U);
bool firstRanPromptly = false;
{
std::unique_lock<std::mutex> lock(mutex);
firstRanPromptly = condition.wait_for(lock, std::chrono::milliseconds(250),
[&]() { return firstStarted; });
}
const auto firstDispatchDelay = std::chrono::steady_clock::now() - enqueueTime;
const bool secondQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1001U, 2001U, 3001U);
const bool independentQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1002U, 2002U, 3002U);
bool independentRanWhileBlocked = false;
{
std::unique_lock<std::mutex> lock(mutex);
independentRanWhileBlocked = condition.wait_for(lock, std::chrono::seconds(2),
[&]() { return independentCompleted; });
releaseFirst = true;
condition.notify_all();
condition.wait_for(lock, std::chrono::seconds(2), [&]() { return completed == 3U; });
}
FNETestHooks::clearOrderedFrameHandler(harness.traffic, protocol);
CHECK(firstQueued);
CHECK(secondQueued);
CHECK(independentQueued);
CHECK(firstRanPromptly);
CHECK(firstDispatchDelay < std::chrono::milliseconds(250));
CHECK(independentRanWhileBlocked);
CHECK_FALSE(secondStartedEarly);
CHECK(completed == 3U);
CHECK(streamOrder == std::vector<uint32_t>{ 1U, 2U });
}
FNETestHooks::stopTrafficWorkerPool(harness.traffic);
}
TEST_CASE("FNE ordered protocol queues preserve burst FIFO and allow stream reuse", "[fne][ordering][fifo]")
{
constexpr uint16_t BURST_LENGTH = 32U;
FNEHarness harness;
FNETestHooks::startTrafficWorkerPool(harness.traffic);
const std::vector<FNETestHooks::ParrotProtocol> protocols{
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN
};
for (const FNETestHooks::ParrotProtocol protocol : protocols) {
std::mutex mutex;
std::condition_variable condition;
std::vector<uint16_t> sequences;
FNETestHooks::setOrderedFrameHandler(harness.traffic, protocol,
[&](const uint8_t*, uint32_t, uint32_t, uint32_t, uint16_t pktSeq,
uint32_t, bool) {
std::lock_guard<std::mutex> lock(mutex);
sequences.push_back(pktSeq);
condition.notify_all();
});
for (uint16_t sequence = 1U; sequence <= BURST_LENGTH; sequence++) {
REQUIRE(FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1101U, 2101U, 3101U, sequence));
}
bool burstCompleted = false;
{
std::unique_lock<std::mutex> lock(mutex);
burstCompleted = condition.wait_for(lock, std::chrono::seconds(2),
[&]() { return sequences.size() == BURST_LENGTH; });
}
REQUIRE(burstCompleted);
std::vector<uint16_t> expected;
for (uint16_t sequence = 1U; sequence <= BURST_LENGTH; sequence++)
expected.push_back(sequence);
CHECK(sequences == expected);
// The first burst drains and removes the stream state. Reusing the exact
// key must schedule a fresh task instead of leaving the stream stranded.
REQUIRE(FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1101U, 2101U, 3101U, BURST_LENGTH + 1U));
bool reusedStreamCompleted = false;
{
std::unique_lock<std::mutex> lock(mutex);
reusedStreamCompleted = condition.wait_for(lock, std::chrono::milliseconds(250),
[&]() { return sequences.size() == BURST_LENGTH + 1U; });
}
CHECK(reusedStreamCompleted);
REQUIRE(sequences.size() == BURST_LENGTH + 1U);
CHECK(sequences.back() == BURST_LENGTH + 1U);
FNETestHooks::clearOrderedFrameHandler(harness.traffic, protocol);
}
FNETestHooks::stopTrafficWorkerPool(harness.traffic);
}
TEST_CASE("FNE ordered protocol queues do not wait for or normalize packet sequences", "[fne][ordering][late-entry]")
{
FNEHarness harness;
FNETestHooks::startTrafficWorkerPool(harness.traffic);
const std::vector<FNETestHooks::ParrotProtocol> protocols{
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN
};
const std::vector<uint16_t> arrivals{ 25U, 23U, 23U, 24U };
for (const FNETestHooks::ParrotProtocol protocol : protocols) {
std::mutex mutex;
std::condition_variable condition;
std::vector<uint16_t> delivered;
FNETestHooks::setOrderedFrameHandler(harness.traffic, protocol,
[&](const uint8_t*, uint32_t, uint32_t, uint32_t, uint16_t pktSeq,
uint32_t, bool) {
std::lock_guard<std::mutex> lock(mutex);
delivered.push_back(pktSeq);
condition.notify_all();
});
for (const uint16_t sequence : arrivals) {
REQUIRE(FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1151U, 2151U, 3151U, sequence));
}
bool allDelivered = false;
{
std::unique_lock<std::mutex> lock(mutex);
allDelivered = condition.wait_for(lock, std::chrono::milliseconds(250),
[&]() { return delivered.size() == arrivals.size(); });
}
CHECK(allDelivered);
CHECK(delivered == arrivals);
FNETestHooks::clearOrderedFrameHandler(harness.traffic, protocol);
}
FNETestHooks::stopTrafficWorkerPool(harness.traffic);
}
TEST_CASE("FNE ordered protocol keys isolate every traffic origin dimension", "[fne][ordering][keys]")
{
FNEHarness harness;
FNETestHooks::startTrafficWorkerPool(harness.traffic);
const std::vector<FNETestHooks::ParrotProtocol> protocols{
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN
};
for (const FNETestHooks::ParrotProtocol protocol : protocols) {
std::mutex mutex;
std::condition_variable condition;
bool blockedFrameStarted = false;
bool releaseBlockedFrame = false;
uint32_t independentCompleted = 0U;
uint32_t totalCompleted = 0U;
FNETestHooks::setOrderedFrameHandler(harness.traffic, protocol,
[&](const uint8_t*, uint32_t, uint32_t, uint32_t, uint16_t pktSeq,
uint32_t, bool) {
std::unique_lock<std::mutex> lock(mutex);
if (pktSeq == 1U) {
blockedFrameStarted = true;
condition.notify_all();
condition.wait(lock, [&]() { return releaseBlockedFrame; });
}
else {
independentCompleted++;
}
totalCompleted++;
condition.notify_all();
});
const bool blockedQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1201U, 2201U, 3201U, 1U, false);
bool blockedRanPromptly = false;
{
std::unique_lock<std::mutex> lock(mutex);
blockedRanPromptly = condition.wait_for(lock, std::chrono::milliseconds(250),
[&]() { return blockedFrameStarted; });
}
// Each frame differs from the blocked key in exactly one field.
const bool peerVariantQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1202U, 2201U, 3201U, 2U, false);
const bool ssrcVariantQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1201U, 2202U, 3201U, 3U, false);
const bool streamVariantQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1201U, 2201U, 3202U, 4U, false);
const bool directionVariantQueued = FNETestHooks::enqueueOrderedFrame(harness.traffic, protocol,
1201U, 2201U, 3201U, 5U, true);
bool keysRanIndependently = false;
{
std::unique_lock<std::mutex> lock(mutex);
keysRanIndependently = condition.wait_for(lock, std::chrono::seconds(2),
[&]() { return independentCompleted == 4U; });
releaseBlockedFrame = true;
condition.notify_all();
condition.wait_for(lock, std::chrono::seconds(2),
[&]() { return totalCompleted == 5U; });
}
CHECK(blockedQueued);
CHECK(blockedRanPromptly);
CHECK(peerVariantQueued);
CHECK(ssrcVariantQueued);
CHECK(streamVariantQueued);
CHECK(directionVariantQueued);
CHECK(keysRanIndependently);
CHECK(totalCompleted == 5U);
FNETestHooks::clearOrderedFrameHandler(harness.traffic, protocol);
}
FNETestHooks::stopTrafficWorkerPool(harness.traffic);
}
TEST_CASE("FNE protocol dispatch validates peers before ordered delivery", "[fne][ordering][dispatch]")
{
constexpr uint32_t AUTHORIZED_PEER = 1301U;
constexpr uint32_t UNAUTHORIZED_PEER = 1302U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, AUTHORIZED_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::startTrafficWorkerPool(harness.traffic);
struct ProtocolCase {
FNETestHooks::ParrotProtocol protocol;
network::NET_SUBFUNC::ENUM subFunction;
};
const std::vector<ProtocolCase> protocols{
{ FNETestHooks::ParrotProtocol::DMR, network::NET_SUBFUNC::PROTOCOL_SUBFUNC_DMR },
{ FNETestHooks::ParrotProtocol::P25, network::NET_SUBFUNC::PROTOCOL_SUBFUNC_P25 },
{ FNETestHooks::ParrotProtocol::P25P2, network::NET_SUBFUNC::PROTOCOL_SUBFUNC_P25_P2 },
{ FNETestHooks::ParrotProtocol::NXDN, network::NET_SUBFUNC::PROTOCOL_SUBFUNC_NXDN }
};
for (const ProtocolCase& protocolCase : protocols) {
std::mutex mutex;
std::condition_variable condition;
uint32_t deliveries = 0U;
uint32_t deliveredPeerId = 0U;
FNETestHooks::setOrderedFrameHandler(harness.traffic, protocolCase.protocol,
[&](const uint8_t*, uint32_t, uint32_t peerId, uint32_t, uint16_t,
uint32_t, bool) {
std::lock_guard<std::mutex> lock(mutex);
deliveries++;
deliveredPeerId = peerId;
condition.notify_all();
});
const std::vector<uint8_t> packet{ 0U };
FNETestHooks::dispatchTraffic(harness.traffic, network::NET_FUNC::PROTOCOL,
protocolCase.subFunction, UNAUTHORIZED_PEER, packet);
{
std::unique_lock<std::mutex> lock(mutex);
CHECK_FALSE(condition.wait_for(lock, std::chrono::milliseconds(50),
[&]() { return deliveries != 0U; }));
}
FNETestHooks::dispatchTraffic(harness.traffic, network::NET_FUNC::PROTOCOL,
protocolCase.subFunction, AUTHORIZED_PEER, packet);
bool authorizedDelivered = false;
{
std::unique_lock<std::mutex> lock(mutex);
authorizedDelivered = condition.wait_for(lock, std::chrono::milliseconds(250),
[&]() { return deliveries == 1U; });
}
CHECK(authorizedDelivered);
CHECK(deliveries == 1U);
CHECK(deliveredPeerId == AUTHORIZED_PEER);
FNETestHooks::clearOrderedFrameHandler(harness.traffic, protocolCase.protocol);
}
FNETestHooks::stopTrafficWorkerPool(harness.traffic);
}
TEST_CASE("FNE parrot playback honors affiliated-required talkgroups", "[fne][parrot][affiliations]")
{
constexpr uint32_t PARROT_TG = 3100U;
constexpr uint32_t OTHER_TG = 3200U;
constexpr uint32_t AFFILIATED_PEER = 1001U;
constexpr uint32_t UNAFFILIATED_PEER = 1002U;
constexpr uint32_t OTHER_TG_PEER = 1003U;
FNEHarness harness;
harness.talkgroups.addEntry(PARROT_TG, 0U, true, true);
FNETestHooks::addPeer(harness.traffic, AFFILIATED_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, UNAFFILIATED_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_TG_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addGroupAffiliation(harness.traffic, AFFILIATED_PEER, 2001U, PARROT_TG);
FNETestHooks::addGroupAffiliation(harness.traffic, OTHER_TG_PEER, 2003U, OTHER_TG);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
std::vector<uint32_t> destinations;
FNETestHooks::capturePeerWrites(harness.traffic, destinations);
FNETestHooks::playbackParrotFrame(harness.traffic, protocol,
UNAFFILIATED_PEER, 2002U, PARROT_TG);
REQUIRE(destinations == std::vector<uint32_t>{ AFFILIATED_PEER });
}
}
TEST_CASE("FNE call handlers enforce group peer-routing precedence", "[fne][callhandler][routing]")
{
constexpr uint32_t TALK_GROUP = 3100U;
constexpr uint32_t INCLUDED_PEER = 1001U;
constexpr uint32_t OTHER_PEER = 1002U;
constexpr uint32_t REPLICA_PEER = 1003U;
constexpr uint32_t SYSVIEW_PEER = 1004U;
FNEHarness harness;
harness.talkgroups.addEntry(TALK_GROUP, 1U, true, true);
lookups::TalkgroupRuleGroupVoice talkgroup = harness.talkgroups.find(TALK_GROUP, 1U);
lookups::TalkgroupRuleConfig config = talkgroup.config();
config.inclusion({ INCLUDED_PEER });
config.exclusion({ INCLUDED_PEER });
talkgroup.config(config);
harness.talkgroups.addEntry(talkgroup);
FNETestHooks::addPeer(harness.traffic, INCLUDED_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addGroupAffiliation(harness.traffic, INCLUDED_PEER, 2001U, TALK_GROUP);
FNETestHooks::addPeer(harness.traffic, OTHER_PEER, network::NET_STAT_RUNNING, true);
network::FNEPeerConnection& replica = FNETestHooks::addPeer(
harness.traffic, REPLICA_PEER, network::NET_STAT_RUNNING, true);
replica.isReplica(true);
network::FNEPeerConnection& sysview = FNETestHooks::addPeer(
harness.traffic, SYSVIEW_PEER, network::NET_STAT_RUNNING, true);
sysview.peerClass(network::PEER_CONN_CLASS_SYSVIEW);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
CHECK(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, INCLUDED_PEER, TALK_GROUP));
CHECK_FALSE(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, OTHER_PEER, TALK_GROUP));
CHECK(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, REPLICA_PEER, TALK_GROUP));
CHECK(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, SYSVIEW_PEER, TALK_GROUP));
}
}
TEST_CASE("FNE call handlers apply affiliation routing exceptions", "[fne][callhandler][routing]")
{
constexpr uint32_t TALK_GROUP = 3100U;
constexpr uint32_t NORMAL_PEER = 1001U;
constexpr uint32_t CONSOLE_PEER = 1002U;
constexpr uint32_t CONVENTIONAL_PEER = 1003U;
constexpr uint32_t VOICE_CHANNEL_PEER = 1004U;
constexpr uint32_t CONTROL_CHANNEL_PEER = 2004U;
FNEHarness harness;
harness.talkgroups.addEntry(TALK_GROUP, 1U, true, true);
FNETestHooks::addPeer(harness.traffic, NORMAL_PEER, network::NET_STAT_RUNNING, true);
network::FNEPeerConnection& console = FNETestHooks::addPeer(
harness.traffic, CONSOLE_PEER, network::NET_STAT_RUNNING, true);
console.peerClass(network::PEER_CONN_CLASS_CONSOLE);
network::FNEPeerConnection& conventional = FNETestHooks::addPeer(
harness.traffic, CONVENTIONAL_PEER, network::NET_STAT_RUNNING, true);
conventional.peerClass(network::PEER_CONN_CLASS_STANDARD);
conventional.isConventional(true);
network::FNEPeerConnection& voiceChannel = FNETestHooks::addPeer(
harness.traffic, VOICE_CHANNEL_PEER, network::NET_STAT_RUNNING, true);
voiceChannel.ccPeerId(CONTROL_CHANNEL_PEER);
FNETestHooks::addGroupAffiliation(
harness.traffic, CONTROL_CHANNEL_PEER, 2001U, TALK_GROUP);
FNETestHooks::allowConventionalAffiliationOverride(harness.traffic, true);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
CHECK_FALSE(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, NORMAL_PEER, TALK_GROUP));
CHECK(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, NORMAL_PEER, TALK_GROUP, true, true));
CHECK(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, CONSOLE_PEER, TALK_GROUP));
CHECK(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, CONVENTIONAL_PEER, TALK_GROUP));
CHECK(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, VOICE_CHANNEL_PEER, TALK_GROUP));
}
}
TEST_CASE("FNE call handlers reject globally disabled unit-to-unit traffic", "[fne][callhandler][routing][u2u]")
{
constexpr uint32_t PEER_ID = 1001U;
constexpr uint32_t DESTINATION_ID = 2001U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, PEER_ID, network::NET_STAT_RUNNING, true);
FNETestHooks::disallowU2U(harness.traffic, true);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
CHECK_FALSE(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, PEER_ID, DESTINATION_ID, false));
}
}
TEST_CASE("FNE call handlers enforce per-peer unit-to-unit authorization", "[fne][callhandler][routing][u2u]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t TARGET_PEER = 1002U;
constexpr uint32_t DESTINATION_ID = 2001U;
FNEHarness harness;
lookups::PeerListLookup peers("", 0U, true, false);
lookups::PeerId sourceEntry(SOURCE_PEER, "source", "", false);
sourceEntry.allowUnitToUnit(false);
peers.addEntry(SOURCE_PEER, sourceEntry);
harness.traffic.setLookups(&harness.radios, nullptr, &harness.talkgroups, &peers, nullptr, nullptr);
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::registerP25Unit(harness.traffic, TARGET_PEER, DESTINATION_ID);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
CHECK_FALSE(FNETestHooks::isPeerPermitted(
harness.traffic, protocol, SOURCE_PEER, DESTINATION_ID, false));
}
}
TEST_CASE("FNE private-call unknown destinations reject or flood by policy",
"[fne][routing][u2u][policy]")
{
FNEHarness harness;
FNETestHooks::configurePrivateCallRouting(harness.traffic, true, "reject", true, 300000U);
CHECK_FALSE(FNETestHooks::isUnitRouteAvailable(harness.traffic, 2001U));
CHECK_FALSE(FNETestHooks::isUnitRouteAvailable(harness.traffic, 0U));
FNETestHooks::configurePrivateCallRouting(harness.traffic, true, "flood", true, 300000U);
CHECK(FNETestHooks::isUnitRouteAvailable(harness.traffic, 2001U));
CHECK_FALSE(FNETestHooks::isUnitRouteAvailable(harness.traffic, 0U));
FNETestHooks::configurePrivateCallRouting(harness.traffic, false, "flood", true, 300000U);
CHECK_FALSE(FNETestHooks::isUnitRouteAvailable(harness.traffic, 2001U));
}
TEST_CASE("FNE private-call traffic learning honors policy and peer authorization",
"[fne][routing][u2u][learning]")
{
constexpr uint32_t ALLOWED_PEER = 1001U;
constexpr uint32_t DENIED_PEER = 1002U;
constexpr uint32_t UNIT_ID = 2001U;
FNEHarness harness;
lookups::PeerListLookup peers("", 0U, true, false);
lookups::PeerId allowed(ALLOWED_PEER, "allowed", "", false);
allowed.allowUnitToUnit(true);
peers.addEntry(ALLOWED_PEER, allowed);
lookups::PeerId denied(DENIED_PEER, "denied", "", false);
denied.allowUnitToUnit(false);
peers.addEntry(DENIED_PEER, denied);
harness.traffic.setLookups(&harness.radios, nullptr, &harness.talkgroups, &peers, nullptr, nullptr);
FNETestHooks::registerP25Unit(harness.traffic, ALLOWED_PEER, 2999U);
FNETestHooks::registerP25Unit(harness.traffic, DENIED_PEER, 2998U);
FNETestHooks::configurePrivateCallRouting(harness.traffic, true, "reject", false, 300000U);
FNETestHooks::learnUnitRoute(harness.traffic, ALLOWED_PEER, UNIT_ID, 3001U);
CHECK(FNETestHooks::findUnitRoute(harness.traffic, UNIT_ID) == 0U);
FNETestHooks::configurePrivateCallRouting(harness.traffic, true, "reject", true, 300000U);
FNETestHooks::learnUnitRoute(harness.traffic, DENIED_PEER, UNIT_ID, 3002U);
CHECK(FNETestHooks::findUnitRoute(harness.traffic, UNIT_ID) == 0U);
FNETestHooks::learnUnitRoute(harness.traffic, ALLOWED_PEER, UNIT_ID, 3001U);
CHECK(FNETestHooks::findUnitRoute(harness.traffic, UNIT_ID) == ALLOWED_PEER);
CHECK(FNETestHooks::isUnitRouteAvailable(harness.traffic, UNIT_ID));
}
TEST_CASE("FNE private-call registration snapshots and peer teardown clean routes",
"[fne][routing][u2u][lifecycle]")
{
constexpr uint32_t PEER_ID = 1001U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, PEER_ID, network::NET_STAT_RUNNING, true);
FNETestHooks::registerP25Unit(harness.traffic, PEER_ID, 2001U);
REQUIRE(FNETestHooks::replaceUnitRegistrations(
harness.traffic, PEER_ID, std::vector<uint32_t>{ 2002U, 2003U }, 3001U));
CHECK(FNETestHooks::findUnitRoute(harness.traffic, 2001U) == 0U);
CHECK(FNETestHooks::findUnitRoute(harness.traffic, 2002U) == PEER_ID);
CHECK(FNETestHooks::findUnitRoute(harness.traffic, 2003U) == PEER_ID);
FNETestHooks::teardownPeer(harness.traffic, PEER_ID);
CHECK(FNETestHooks::findUnitRoute(harness.traffic, 2002U) == 0U);
CHECK(FNETestHooks::findUnitRoute(harness.traffic, 2003U) == 0U);
}
TEST_CASE("FNE private-call grants target only the registered next hop",
"[fne][callhandler][routing][u2u][grants]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t TARGET_PEER = 1002U;
constexpr uint32_t OTHER_PEER = 1003U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::NXDN
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, TARGET_PEER, DESTINATION_ID);
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
bool accepted = false;
if (protocol == FNETestHooks::ParrotProtocol::DMR) {
accepted = FNETestHooks::processDMRGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true);
}
else if (protocol == FNETestHooks::ParrotProtocol::P25) {
accepted = FNETestHooks::processP25GrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true);
}
else {
accepted = FNETestHooks::processNXDNGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true);
}
REQUIRE(accepted);
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, TARGET_PEER });
}
}
TEST_CASE("FNE private-call grants support retries and reverse talker direction",
"[fne][callhandler][routing][u2u][grants][continuation]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t TARGET_PEER = 1002U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::NXDN
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, SOURCE_PEER, SOURCE_ID);
FNETestHooks::registerP25Unit(harness.traffic, TARGET_PEER, DESTINATION_ID);
auto request = [&](uint32_t peerId, uint32_t sourceId, uint32_t destinationId) {
if (protocol == FNETestHooks::ParrotProtocol::DMR) {
return FNETestHooks::processDMRGrantRequest(
harness.traffic, peerId, sourceId, destinationId, true);
}
if (protocol == FNETestHooks::ParrotProtocol::P25) {
return FNETestHooks::processP25GrantRequest(
harness.traffic, peerId, sourceId, destinationId, true);
}
return FNETestHooks::processNXDNGrantRequest(
harness.traffic, peerId, sourceId, destinationId, true);
};
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
REQUIRE(request(SOURCE_PEER, SOURCE_ID, DESTINATION_ID));
writes.clear();
REQUIRE(request(SOURCE_PEER, SOURCE_ID, DESTINATION_ID));
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, TARGET_PEER });
writes.clear();
REQUIRE(request(TARGET_PEER, DESTINATION_ID, SOURCE_ID));
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, TARGET_PEER });
}
}
TEST_CASE("FNE private-call flood reaches every authorized transit peer",
"[fne][callhandler][routing][u2u][flood]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t ALLOWED_PEER_A = 1002U;
constexpr uint32_t ALLOWED_PEER_B = 1003U;
constexpr uint32_t DENIED_PEER = 1004U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::NXDN
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
FNEHarness harness;
lookups::PeerListLookup peers("", 0U, true, false);
for (uint32_t peerId : { SOURCE_PEER, ALLOWED_PEER_A, ALLOWED_PEER_B }) {
lookups::PeerId peer(peerId, "allowed", "", false);
peer.allowUnitToUnit(true);
peers.addEntry(peerId, peer);
}
lookups::PeerId denied(DENIED_PEER, "denied", "", false);
denied.allowUnitToUnit(false);
peers.addEntry(DENIED_PEER, denied);
harness.traffic.setLookups(&harness.radios, nullptr, &harness.talkgroups, &peers, nullptr, nullptr);
FNETestHooks::configurePrivateCallRouting(harness.traffic, true, "flood", true, 300000U);
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, ALLOWED_PEER_A, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, ALLOWED_PEER_B, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, DENIED_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::registerP25Unit(harness.traffic, ALLOWED_PEER_A, 2901U);
FNETestHooks::registerP25Unit(harness.traffic, ALLOWED_PEER_B, 2902U);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
bool accepted = false;
if (protocol == FNETestHooks::ParrotProtocol::DMR) {
accepted = FNETestHooks::processDMRGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true);
}
else if (protocol == FNETestHooks::ParrotProtocol::P25) {
accepted = FNETestHooks::processP25GrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true);
}
else {
accepted = FNETestHooks::processNXDNGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true);
}
REQUIRE(accepted);
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, ALLOWED_PEER_A, ALLOWED_PEER_B });
}
}
TEST_CASE("FNE P25 Phase 2 private voice honors known routes and flood policy",
"[fne][callhandler][routing][u2u][flood][p25p2]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t TARGET_PEER = 1002U;
constexpr uint32_t OTHER_PEER = 1003U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
SECTION("known destination selects only its registered peer") {
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, TARGET_PEER, DESTINATION_ID);
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
REQUIRE(FNETestHooks::processP25P2PrivateFrame(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, 201U));
CHECK(writes == std::vector<uint32_t>{ TARGET_PEER });
}
SECTION("unknown destination floods to authorized peers") {
FNEHarness harness;
FNETestHooks::configurePrivateCallRouting(harness.traffic, true, "flood", true, 300000U);
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
REQUIRE(FNETestHooks::processP25P2PrivateFrame(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, 202U));
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ TARGET_PEER, OTHER_PEER });
}
}
TEST_CASE("FNE private-call routing denies an unauthorized destination peer",
"[fne][callhandler][routing][u2u][egress]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t TARGET_PEER = 1002U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
FNEHarness harness;
lookups::PeerListLookup peers("", 0U, true, false);
lookups::PeerId source(SOURCE_PEER, "source", "", false);
source.allowUnitToUnit(true);
peers.addEntry(SOURCE_PEER, source);
lookups::PeerId target(TARGET_PEER, "target", "", false);
target.allowUnitToUnit(false);
peers.addEntry(TARGET_PEER, target);
harness.traffic.setLookups(&harness.radios, nullptr, &harness.talkgroups, &peers, nullptr, nullptr);
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, TARGET_PEER, DESTINATION_ID);
CHECK_FALSE(FNETestHooks::isUnitRouteAvailable(harness.traffic, DESTINATION_ID));
CHECK_FALSE(FNETestHooks::processDMRGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true));
CHECK_FALSE(FNETestHooks::processP25GrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true));
CHECK_FALSE(FNETestHooks::processNXDNGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true));
}
TEST_CASE("FNE P25 uses the explicit U2U flag for late-entry voice", "[fne][callhandler][routing][u2u]")
{
constexpr uint32_t PEER_ID = 1001U;
constexpr uint32_t SOURCE_ID = 5519007U;
constexpr uint32_t DESTINATION_ID = 5519001U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, PEER_ID, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, PEER_ID, DESTINATION_ID);
CHECK(FNETestHooks::validateP25IndividualCall(
harness.traffic, PEER_ID, SOURCE_ID, DESTINATION_ID));
FNETestHooks::disallowU2U(harness.traffic, true);
CHECK_FALSE(FNETestHooks::validateP25IndividualCall(
harness.traffic, PEER_ID, SOURCE_ID, DESTINATION_ID));
}
TEST_CASE("FNE DMR individual grant demand targets the called unit site",
"[fne][callhandler][routing][u2u][dmr]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t SOURCE_SITE = 1002U;
constexpr uint32_t TARGET_SITE = 1003U;
constexpr uint32_t OTHER_SITE = 1004U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, SOURCE_SITE, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_SITE, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_SITE, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, SOURCE_SITE, SOURCE_ID);
FNETestHooks::registerP25Unit(harness.traffic, TARGET_SITE, DESTINATION_ID);
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
REQUIRE(FNETestHooks::processDMRGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true));
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, TARGET_SITE });
}
TEST_CASE("FNE grant release requires the originating peer and matching call",
"[fne][callhandler][grant][release]")
{
constexpr uint32_t OWNER_PEER = 1001U;
constexpr uint32_t OTHER_PEER = 1002U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t TALK_GROUP = 3100U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, OWNER_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.talkgroups.addEntry(TALK_GROUP, 1U, true, false);
REQUIRE(FNETestHooks::processP25GrantRequest(
harness.traffic, OWNER_PEER, SOURCE_ID, TALK_GROUP, false));
CHECK_FALSE(FNETestHooks::processGrantRelease(
harness.traffic, OTHER_PEER, SOURCE_ID, TALK_GROUP, false));
CHECK_FALSE(FNETestHooks::processGrantRelease(
harness.traffic, OWNER_PEER, SOURCE_ID + 1U, TALK_GROUP, false));
CHECK_FALSE(FNETestHooks::processGrantRelease(
harness.traffic, OWNER_PEER, SOURCE_ID, TALK_GROUP, true));
CHECK(FNETestHooks::processGrantRelease(
harness.traffic, OWNER_PEER, SOURCE_ID, TALK_GROUP, false));
CHECK_FALSE(FNETestHooks::processGrantRelease(
harness.traffic, OWNER_PEER, SOURCE_ID, TALK_GROUP, false));
}
TEST_CASE("FNE grant release resolves reverse U2U direction",
"[fne][callhandler][grant][release][u2u]")
{
constexpr uint32_t OWNER_PEER = 1001U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, OWNER_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, OWNER_PEER, DESTINATION_ID);
REQUIRE(FNETestHooks::processP25GrantRequest(
harness.traffic, OWNER_PEER, SOURCE_ID, DESTINATION_ID, true));
CHECK(FNETestHooks::processGrantRelease(
harness.traffic, OWNER_PEER, DESTINATION_ID, SOURCE_ID, true));
}
TEST_CASE("FNE failed grant commit releases the reserved grant",
"[fne][callhandler][grant][release][failed]")
{
constexpr uint32_t OWNER_PEER = 1001U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t TALK_GROUP = 3100U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, OWNER_PEER, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.talkgroups.addEntry(TALK_GROUP, 1U, true, false);
REQUIRE(FNETestHooks::processP25GrantRequest(
harness.traffic, OWNER_PEER, SOURCE_ID, TALK_GROUP, false));
CHECK(FNETestHooks::processGrantRelease(
harness.traffic, OWNER_PEER, SOURCE_ID, TALK_GROUP, false, true));
CHECK_FALSE(FNETestHooks::processGrantRelease(
harness.traffic, OWNER_PEER, SOURCE_ID, TALK_GROUP, false, true));
}
TEST_CASE("FNE DMR group grant demand retains group peer routing",
"[fne][callhandler][routing][group][dmr]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t SITE_A = 1002U;
constexpr uint32_t SITE_B = 1003U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t TALK_GROUP = 3100U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, SITE_A, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, SITE_B, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.talkgroups.addEntry(TALK_GROUP, 1U, true, false);
FNETestHooks::addGroupAffiliation(harness.traffic, SITE_A, SOURCE_ID, TALK_GROUP);
FNETestHooks::addGroupAffiliation(harness.traffic, SITE_B, SOURCE_ID, TALK_GROUP);
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
REQUIRE(FNETestHooks::processDMRGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, TALK_GROUP, false));
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, SITE_A, SITE_B });
}
TEST_CASE("FNE NXDN individual grant demand targets the called unit site",
"[fne][callhandler][routing][u2u][nxdn]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t SOURCE_SITE = 1002U;
constexpr uint32_t TARGET_SITE = 1003U;
constexpr uint32_t OTHER_SITE = 1004U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, SOURCE_SITE, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, TARGET_SITE, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_SITE, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.radios.addEntry(DESTINATION_ID, true, "test destination");
FNETestHooks::registerP25Unit(harness.traffic, SOURCE_SITE, SOURCE_ID);
FNETestHooks::registerP25Unit(harness.traffic, TARGET_SITE, DESTINATION_ID);
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
REQUIRE(FNETestHooks::processNXDNGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, DESTINATION_ID, true));
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, TARGET_SITE });
}
TEST_CASE("FNE NXDN group grant demand retains group peer routing",
"[fne][callhandler][routing][group][nxdn]")
{
constexpr uint32_t SOURCE_PEER = 1001U;
constexpr uint32_t SITE_A = 1002U;
constexpr uint32_t SITE_B = 1003U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t TALK_GROUP = 3100U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, SOURCE_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, SITE_A, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, SITE_B, network::NET_STAT_RUNNING, true);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.talkgroups.addEntry(TALK_GROUP, 1U, true, false);
FNETestHooks::addGroupAffiliation(harness.traffic, SITE_A, SOURCE_ID, TALK_GROUP);
FNETestHooks::addGroupAffiliation(harness.traffic, SITE_B, SOURCE_ID, TALK_GROUP);
std::vector<uint32_t> writes;
FNETestHooks::capturePeerWrites(harness.traffic, writes);
REQUIRE(FNETestHooks::processNXDNGrantRequest(
harness.traffic, SOURCE_PEER, SOURCE_ID, TALK_GROUP, false));
std::sort(writes.begin(), writes.end());
CHECK(writes == std::vector<uint32_t>{ SOURCE_PEER, SITE_A, SITE_B });
}
TEST_CASE("FNE call handlers validate source radios and group state", "[fne][callhandler][validation]")
{
constexpr uint32_t PEER_ID = 1001U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t TALK_GROUP = 3100U;
constexpr uint32_t INVALID_TALK_GROUP = 3200U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, PEER_ID, network::NET_STAT_RUNNING, true);
std::vector<uint32_t> rejectedWrites;
FNETestHooks::capturePeerWrites(harness.traffic, rejectedWrites);
harness.radios.addEntry(SOURCE_ID, true, "test source");
harness.talkgroups.addEntry(TALK_GROUP, 1U, true, false);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
CHECK(FNETestHooks::validateGroupCall(
harness.traffic, protocol, PEER_ID, SOURCE_ID, TALK_GROUP));
CHECK_FALSE(FNETestHooks::validateGroupCall(
harness.traffic, protocol, PEER_ID, SOURCE_ID, INVALID_TALK_GROUP));
}
harness.talkgroups.addEntry(TALK_GROUP, 1U, false, false);
harness.radios.addEntry(SOURCE_ID, false, "disabled source");
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
CHECK_FALSE(FNETestHooks::validateGroupCall(
harness.traffic, protocol, PEER_ID, SOURCE_ID, TALK_GROUP));
}
}
TEST_CASE("FNE analog handler preserves the individual-call flag", "[fne][callhandler][analog][u2u]")
{
constexpr uint32_t PEER_ID = 1001U;
constexpr uint32_t SOURCE_ID = 2001U;
constexpr uint32_t DESTINATION_ID = 2002U;
constexpr uint32_t STREAM_ID = 100U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, PEER_ID, network::NET_STAT_RUNNING, true);
FNETestHooks::disallowU2U(harness.traffic, true);
std::vector<uint8_t> frame(network::ANALOG_PACKET_LENGTH, 0U);
SET_UINT24(SOURCE_ID, frame.data(), 5U);
SET_UINT24(DESTINATION_ID, frame.data(), 8U);
frame[15U] = 0x40U | analog::defines::AudioFrameType::VOICE;
CHECK_FALSE(harness.traffic.analogTrafficHandler()->processFrame(
frame.data(), (uint32_t)frame.size(), PEER_ID, PEER_ID, 1U, STREAM_ID));
}
TEST_CASE("FNE call handlers reject truncated protocol frames", "[fne][callhandler][validation][security]")
{
constexpr uint32_t PEER_ID = 1001U;
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, PEER_ID, network::NET_STAT_RUNNING, true);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
CHECK_FALSE(FNETestHooks::processTruncatedFrame(harness.traffic, protocol, PEER_ID));
}
}
TEST_CASE("FNE parrot playback permits always-send and console peers", "[fne][parrot][routing]")
{
constexpr uint32_t PARROT_TG = 3100U;
constexpr uint32_t ALWAYS_SEND_PEER = 1001U;
constexpr uint32_t CONSOLE_PEER = 1002U;
constexpr uint32_t UNAFFILIATED_PEER = 1003U;
FNEHarness harness;
harness.talkgroups.addEntry(PARROT_TG, 0U, true, true);
lookups::TalkgroupRuleGroupVoice talkgroup = harness.talkgroups.find(PARROT_TG);
lookups::TalkgroupRuleConfig config = talkgroup.config();
config.alwaysSend({ ALWAYS_SEND_PEER });
talkgroup.config(config);
harness.talkgroups.addEntry(talkgroup);
FNETestHooks::addPeer(harness.traffic, ALWAYS_SEND_PEER, network::NET_STAT_RUNNING, true);
network::FNEPeerConnection& console = FNETestHooks::addPeer(
harness.traffic, CONSOLE_PEER, network::NET_STAT_RUNNING, true);
console.peerClass(network::PEER_CONN_CLASS_CONSOLE);
FNETestHooks::addPeer(harness.traffic, UNAFFILIATED_PEER, network::NET_STAT_RUNNING, true);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
std::vector<uint32_t> destinations;
FNETestHooks::capturePeerWrites(harness.traffic, destinations);
FNETestHooks::playbackParrotFrame(harness.traffic, protocol,
UNAFFILIATED_PEER, 2003U, PARROT_TG);
std::sort(destinations.begin(), destinations.end());
REQUIRE(destinations == std::vector<uint32_t>{ ALWAYS_SEND_PEER, CONSOLE_PEER });
}
}
TEST_CASE("FNE parrot playback blocks excluded peers", "[fne][parrot][routing]")
{
constexpr uint32_t PARROT_TG = 3100U;
constexpr uint32_t PERMITTED_PEER = 1001U;
constexpr uint32_t EXCLUDED_PEER = 1002U;
FNEHarness harness;
harness.talkgroups.addEntry(PARROT_TG, 0U, true, false);
lookups::TalkgroupRuleGroupVoice talkgroup = harness.talkgroups.find(PARROT_TG);
lookups::TalkgroupRuleConfig config = talkgroup.config();
config.exclusion({ EXCLUDED_PEER });
config.alwaysSend({ EXCLUDED_PEER });
talkgroup.config(config);
harness.talkgroups.addEntry(talkgroup);
FNETestHooks::addPeer(harness.traffic, PERMITTED_PEER, network::NET_STAT_RUNNING, true);
network::FNEPeerConnection& excluded = FNETestHooks::addPeer(
harness.traffic, EXCLUDED_PEER, network::NET_STAT_RUNNING, true);
excluded.peerClass(network::PEER_CONN_CLASS_CONSOLE);
FNETestHooks::addGroupAffiliation(harness.traffic, PERMITTED_PEER, 2001U, PARROT_TG);
FNETestHooks::addGroupAffiliation(harness.traffic, EXCLUDED_PEER, 2002U, PARROT_TG);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
std::vector<uint32_t> destinations;
FNETestHooks::capturePeerWrites(harness.traffic, destinations);
FNETestHooks::playbackParrotFrame(harness.traffic, protocol,
PERMITTED_PEER, 2001U, PARROT_TG);
REQUIRE(destinations == std::vector<uint32_t>{ PERMITTED_PEER });
}
}
TEST_CASE("FNE parrot playback honors peer inclusion lists", "[fne][parrot][routing]")
{
constexpr uint32_t PARROT_TG = 3100U;
constexpr uint32_t INCLUDED_PEER = 1001U;
constexpr uint32_t OTHER_PEER = 1002U;
FNEHarness harness;
harness.talkgroups.addEntry(PARROT_TG, 0U, true, false);
lookups::TalkgroupRuleGroupVoice talkgroup = harness.talkgroups.find(PARROT_TG);
lookups::TalkgroupRuleConfig config = talkgroup.config();
config.inclusion({ INCLUDED_PEER });
config.alwaysSend({ OTHER_PEER });
talkgroup.config(config);
harness.talkgroups.addEntry(talkgroup);
FNETestHooks::addPeer(harness.traffic, INCLUDED_PEER, network::NET_STAT_RUNNING, true);
FNETestHooks::addPeer(harness.traffic, OTHER_PEER, network::NET_STAT_RUNNING, true);
const std::vector<FNETestHooks::ParrotProtocol> protocols = {
FNETestHooks::ParrotProtocol::DMR,
FNETestHooks::ParrotProtocol::P25,
FNETestHooks::ParrotProtocol::P25P2,
FNETestHooks::ParrotProtocol::NXDN,
FNETestHooks::ParrotProtocol::ANALOG
};
for (FNETestHooks::ParrotProtocol protocol : protocols) {
CAPTURE(static_cast<int>(protocol));
std::vector<uint32_t> destinations;
FNETestHooks::capturePeerWrites(harness.traffic, destinations);
FNETestHooks::playbackParrotFrame(harness.traffic, protocol,
OTHER_PEER, 2002U, PARROT_TG);
REQUIRE(destinations == std::vector<uint32_t>{ INCLUDED_PEER });
}
}
TEST_CASE("FNE P25 filtered terminators honor peer routing lists", "[fne][callhandler][p25][routing]")
{
constexpr uint32_t TALK_GROUP = 3100U;
constexpr uint32_t INCLUDED_PEER = 1001U;
constexpr uint32_t EXCLUDED_PEER = 1002U;
constexpr uint32_t OTHER_PEER = 1003U;
FNEHarness harness;
harness.talkgroups.addEntry(TALK_GROUP, 0U, true, false);
lookups::TalkgroupRuleGroupVoice talkgroup = harness.talkgroups.find(TALK_GROUP);
lookups::TalkgroupRuleConfig config = talkgroup.config();
config.inclusion({ INCLUDED_PEER });
config.exclusion({ EXCLUDED_PEER });
talkgroup.config(config);
harness.talkgroups.addEntry(talkgroup);
FNETestHooks::filterTerminators(harness.traffic, true);
CHECK(FNETestHooks::isP25TerminatorPeerPermitted(
harness.traffic, INCLUDED_PEER, TALK_GROUP));
CHECK_FALSE(FNETestHooks::isP25TerminatorPeerPermitted(
harness.traffic, EXCLUDED_PEER, TALK_GROUP));
CHECK_FALSE(FNETestHooks::isP25TerminatorPeerPermitted(
harness.traffic, OTHER_PEER, TALK_GROUP));
}
TEST_CASE("Affiliation snapshots replace prior state", "[fne][affiliations]")
{
lookups::AffiliationLookup affiliations("test-affiliations", nullptr, false);
affiliations.groupAff(1001U, 3100U);
affiliations.groupAff(1002U, 3200U);
std::unordered_map<uint32_t, uint32_t> replacement = {
{ 1002U, 3300U },
{ 1003U, 3400U }
};
affiliations.replaceGroupAffiliations(replacement);
REQUIRE(affiliations.grpAffTable() == replacement);
affiliations.replaceGroupAffiliations({});
REQUIRE(affiliations.grpAffTable().empty());
}
TEST_CASE("Unit registration snapshots replace prior state", "[fne][registrations]")
{
lookups::AffiliationLookup registrations("test-registrations", nullptr, false);
registrations.unitReg(1001U);
registrations.unitReg(1002U);
registrations.replaceUnitRegistrations({ 1002U, 1003U, 1003U });
REQUIRE(registrations.unitRegTable() == std::vector<uint32_t>{ 1002U, 1003U });
registrations.replaceUnitRegistrations({});
REQUIRE(registrations.unitRegTable().empty());
}
TEST_CASE("FNE test hooks expose peer connection state", "[fne][hooks]")
{
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, 1001U, network::NET_STAT_WAITING_AUTHORISATION);
REQUIRE(FNETestHooks::hasPeer(harness.traffic, 1001U));
REQUIRE(FNETestHooks::peerCount(harness.traffic) == 1U);
REQUIRE(FNETestHooks::peerState(harness.traffic, 1001U) == network::NET_STAT_WAITING_AUTHORISATION);
}
TEST_CASE("FNE peer references remain valid after registry removal", "[fne][hooks][concurrency]")
{
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, 1001U, network::NET_STAT_RUNNING, true);
std::shared_ptr<network::FNEPeerConnection> retained =
FNETestHooks::retainPeer(harness.traffic, 1001U);
REQUIRE(retained != nullptr);
FNETestHooks::removePeer(harness.traffic, 1001U);
REQUIRE_FALSE(FNETestHooks::hasPeer(harness.traffic, 1001U));
REQUIRE(FNETestHooks::peerCount(harness.traffic) == 0U);
REQUIRE(retained->id() == 1001U);
REQUIRE(retained->connectionState() == network::NET_STAT_RUNNING);
}
TEST_CASE("FNE replicated peer snapshots are stable copies", "[fne][replication]")
{
FNEHarness harness;
json::array peers;
json::object peer;
uint32_t replicatedPeerId = 2001U;
peer["peerId"].set<uint32_t>(replicatedPeerId);
peers.push_back(json::value(peer));
FNETestHooks::updateReplicatedPeers(harness.traffic, 1001U, peers);
std::unordered_map<uint32_t, json::array> snapshot = FNETestHooks::replicatedPeersSnapshot(harness.traffic);
REQUIRE(snapshot.size() == 1U);
REQUIRE(snapshot.at(1001U).size() == 1U);
FNETestHooks::eraseReplicatedPeers(harness.traffic, 1001U);
REQUIRE(FNETestHooks::replicatedPeersSnapshot(harness.traffic).empty());
REQUIRE(snapshot.at(1001U).size() == 1U);
}
TEST_CASE("FNE traffic dispatcher rejects truncated pre-authentication packets", "[fne][hooks][security]")
{
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, 1001U, network::NET_STAT_WAITING_AUTHORISATION);
REQUIRE_NOTHROW(FNETestHooks::dispatchTraffic(harness.traffic, network::NET_FUNC::RPTK,
network::NET_SUBFUNC::NOP, 1001U, std::vector<uint8_t>(8U)));
REQUIRE(FNETestHooks::peerState(harness.traffic, 1001U) == network::NET_STAT_WAITING_AUTHORISATION);
REQUIRE_NOTHROW(FNETestHooks::dispatchTraffic(harness.traffic, network::NET_FUNC::RPTC,
network::NET_SUBFUNC::NOP, 1001U, std::vector<uint8_t>(8U)));
REQUIRE(FNETestHooks::peerState(harness.traffic, 1001U) == network::NET_STAT_WAITING_AUTHORISATION);
}
TEST_CASE("FNE metadata dispatcher rejects truncated log transfers", "[fne][hooks][security]")
{
FNEHarness harness;
FNETestHooks::addPeer(harness.traffic, 1001U, network::NET_STAT_RUNNING, true);
REQUIRE_NOTHROW(FNETestHooks::dispatchMetadata(harness.traffic, harness.metadata,
network::NET_FUNC::TRANSFER, network::NET_SUBFUNC::TRANSFER_SUBFUNC_ACTIVITY,
1001U, std::vector<uint8_t>(11U)));
REQUIRE_NOTHROW(FNETestHooks::dispatchMetadata(harness.traffic, harness.metadata,
network::NET_FUNC::TRANSFER, network::NET_SUBFUNC::TRANSFER_SUBFUNC_DIAG,
1001U, std::vector<uint8_t>(10U)));
REQUIRE(FNETestHooks::peerState(harness.traffic, 1001U) == network::NET_STAT_RUNNING);
}
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