microReticulum/test/test_reference/test_main.cpp
Chad Attermann 4d6f0b9de2 Added dual-class PSRAM/TLSF allocator system and refactored memory management
Introduces a flexible two-class allocator architecture (RNS_DEFAULT_ALLOCATOR and RNS_CONTAINER_ALLOCATOR) supporting heap, PSRAM, and TLSF pool variants for fine-grained control over embedded memory layout.

- New Memory.h/cpp with ContainerAllocator<T>, heap/PSRAM/pool allocator types, and heap stats reporting
- IdentityTable and PathTable now use ContainerAllocator
- Replaced RNS_USE_TLSF/RNS_USE_ALLOCATOR/RNS_USE_PSRAM flags with per-class allocator flags (RNS_DEFAULT_ALLOCATOR, RNS_CONTAINER_ALLOCATOR)
- Added ESP32 PSRAM allocator support (RNS_PSRAM_ALLOCATOR, RNS_PSRAM_POOL_ALLOCATOR)
- Added Transport::get_path()/remove_path() helpers
- Added loop callback (set_loop_callback) to enable more responsive app during long operations (like clean_cache)
- Aded guard against re-entrancy to clean_cache()
- Added callback option to list_directory() to avoid heap allocation
- Added OOM auto-restart (ESP.restart/NVIC_SystemReset) in Interface send/receive and Reticulum loop.
- Renamed setLogCallback to set_log_callback
- Made Link/Identity static members private
- Added native14 env to CI and platformio.ini
- Bumped version to 0.2.10
2026-03-06 16:43:04 -07:00

162 lines
4.3 KiB
C++

#include <unity.h>
#include "Reticulum.h"
#include "Bytes.h"
void test_reticulum_reference() {
HEAD("Running testReference...", RNS::LOG_TRACE);
RNS::Reticulum reticulum_default;
TEST_ASSERT_TRUE(reticulum_default);
RNS::Reticulum reticulum_none({RNS::Type::NONE});
TEST_ASSERT_FALSE(reticulum_none);
RNS::Reticulum reticulum_default_copy(reticulum_default);
TEST_ASSERT_TRUE(reticulum_default_copy);
RNS::Reticulum reticulum_none_copy(reticulum_none);
TEST_ASSERT_FALSE(reticulum_none_copy);
/*
RNS::loglevel(RNS::LOG_TRACE);
TestInterface testinterface;
std::set<std::reference_wrapper<RNS::Interface>, std::less<RNS::Interface>> interfaces;
interfaces.insert(testinterface);
for (auto iter = interfaces.begin(); iter != interfaces.end(); ++iter) {
RNS::Interface& interface = (*iter);
TRACEF("Found interface: %s", interface.toString().c_str());
RNS::Bytes data;
const_cast<RNS::Interface&>(interface).on_outgoing(data);
}
return 0;
*/
/*
RNS::loglevel(RNS::LOG_TRACE);
TestInterface testinterface;
std::set<std::reference_wrapper<RNS::Interface>, std::less<RNS::Interface>> interfaces;
interfaces.insert(testinterface);
for (auto& interface : interfaces) {
TRACEF("Found interface: %s", interface.toString().c_str());
RNS::Bytes data;
const_cast<RNS::Interface&>(interface).on_outgoing(data);
}
return 0;
*/
/*
RNS::loglevel(RNS::LOG_TRACE);
TestInterface testinterface;
std::list<std::reference_wrapper<RNS::Interface>> interfaces;
interfaces.push_back(testinterface);
for (auto iter = interfaces.begin(); iter != interfaces.end(); ++iter) {
RNS::Interface& interface = (*iter);
TRACEF("Found interface: %s", interface.toString().c_str());
RNS::Bytes data;
const_cast<RNS::Interface&>(interface).on_outgoing(data);
}
return 0;
*/
/*
RNS::loglevel(RNS::LOG_TRACE);
TestInterface testinterface;
std::list<std::reference_wrapper<RNS::Interface>> interfaces;
interfaces.push_back(testinterface);
//for (auto& interface : interfaces) {
for (RNS::Interface& interface : interfaces) {
TRACEF("Found interface: %s", interface.toString().c_str());
RNS::Bytes data;
const_cast<RNS::Interface&>(interface).on_outgoing(data);
}
return 0;
*/
/*
std::list<std::reference_wrapper<RNS::Interface>> interfaces;
{
RNS::loglevel(RNS::LOG_TRACE);
TestInterface testinterface;
interfaces.push_back(testinterface);
for (auto iter = interfaces.begin(); iter != interfaces.end(); ++iter) {
RNS::Interface& interface = (*iter);
TRACEF("1 Found interface: %s", interface.toString().c_str());
RNS::Bytes data;
const_cast<RNS::Interface&>(interface).on_outgoing(data);
}
}
for (auto iter = interfaces.begin(); iter != interfaces.end(); ++iter) {
RNS::Interface& interface = (*iter);
TRACEF("2 Found interface: %s", interface.toString().c_str());
RNS::Bytes data;
const_cast<RNS::Interface&>(interface).on_outgoing(data);
}
return 0;
*/
/*
HEAD("Testing map...", RNS::LOG_TRACE);
{
std::map<RNS::Bytes, RNS::Destination&> destinations;
destinations.insert({destination.hash(), destination});
//for (RNS::Destination& destination : destinations) {
for (auto& [hash, destination] : destinations) {
TRACEF("Iterated destination: %s", destination.toString().c_str());
}
RNS::Bytes hash = destination.hash();
auto iter = destinations.find(hash);
if (iter != destinations.end()) {
RNS::Destination& destination = (*iter).second;
TRACEF("Found destination: %s", destination.toString().c_str());
}
return;
}
*/
}
void test_destination_entry_reference() {
HEAD("Running testReference...", RNS::LOG_TRACE);
RNS::Transport::DestinationEntry destination_entry;
TEST_ASSERT_FALSE(destination_entry);
}
void setUp(void) {
// set stuff up here before each test
}
void tearDown(void) {
// clean stuff up here after each test
}
int runUnityTests(void) {
UNITY_BEGIN();
RUN_TEST(test_reticulum_reference);
RUN_TEST(test_destination_entry_reference);
return UNITY_END();
}
// For native dev-platform or for some embedded frameworks
int main(void) {
return runUnityTests();
}
#ifdef ARDUINO
// For Arduino framework
void setup() {
// Wait ~2 seconds before the Unity test runner
// establishes connection with a board Serial interface
delay(2000);
runUnityTests();
}
void loop() {}
#endif
// For ESP-IDF framework
void app_main() {
runUnityTests();
}