KytyPS5/tests/AudioOut2PortTests.cpp

690 lines
26 KiB
C++

#include "libs/audio.h"
#include "libs/audio_internal.h"
#include "libs/errno.h"
#include <algorithm>
#include <array>
#include <atomic>
#include <cmath>
#include <condition_variable>
#include <cstdint>
#include <cstdio>
#include <cstdlib>
#include <cstring>
#include <limits>
#include <mutex>
#include <thread>
#include <vector>
namespace {
namespace AudioOut2 = Libs::Audio::AudioOut2;
AudioOut2::AudioOut2UserHandle g_user_handle = 0;
std::mutex g_device_mutex;
std::condition_variable g_device_cv;
std::vector<int> g_live_devices;
std::vector<int> g_device_backed_handles;
std::vector<bool> g_output_blocking;
std::vector<std::vector<uint8_t>> g_output_pcm;
std::vector<std::array<float, 2>> g_output_gains;
size_t g_capture_bytes = 0;
int g_next_device = 1;
int g_open_waiters = 0;
bool g_block_opens = false;
void Check(bool value, const char* text) {
if (!value) {
std::fprintf(stderr, "AudioOut2PortTests: failed: %s\n", text);
std::abort();
}
}
struct PortParam {
uint16_t port_type;
uint16_t pad;
uint32_t data_format;
uint32_t sampling_freq;
uint32_t flags;
uint64_t user_handle;
uint32_t reserved[10];
};
struct ContextParam {
uint32_t max_ports;
uint32_t max_object_ports;
uint32_t guarantee_object_ports;
uint32_t queue_depth;
uint32_t num_grains;
uint32_t flags;
uint32_t reserved[10];
};
struct PortState {
uint16_t output;
uint8_t num_channels;
uint8_t pad1;
int16_t volume;
uint16_t reroute_counter;
uint32_t flags;
uint32_t pad2;
uint64_t reserved[6];
};
struct Attribute {
uint32_t attribute_id;
int32_t reserved;
const void* value;
size_t value_size;
};
struct Pcm {
const void* data;
};
const auto* AsParam(const PortParam* param) {
return reinterpret_cast<const AudioOut2::AudioOut2PortParam*>(param);
}
const auto* AsParam(const ContextParam* param) {
return reinterpret_cast<const AudioOut2::AudioOut2ContextParam*>(param);
}
auto* AsState(PortState* state) {
return reinterpret_cast<AudioOut2::AudioOut2PortState*>(state);
}
const auto* AsAttribute(const Attribute* attribute) {
return reinterpret_cast<const AudioOut2::AudioOut2Attribute*>(attribute);
}
PortParam MakeParam(uint32_t data_format = 0x200) {
PortParam param {};
param.data_format = data_format;
param.sampling_freq = 48000;
param.user_handle = g_user_handle;
return param;
}
AudioOut2::AudioOut2ContextHandle CreateContext(uint32_t queue_depth = 4, uint32_t max_object_ports = 0) {
ContextParam param {};
param.max_object_ports = max_object_ports;
param.queue_depth = queue_depth;
param.num_grains = 512;
AudioOut2::AudioOut2ContextHandle context = 0;
Check(AudioOut2::AudioOut2ContextCreate(AsParam(&param), nullptr, 0, &context) == OK,
"context create failed");
return context;
}
AudioOut2::AudioOut2PortHandle CreatePort(AudioOut2::AudioOut2ContextHandle context, const PortParam& param) {
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK, "port create failed");
return port;
}
void TestUserSupportedAttributes() {
constexpr int invalid_param = static_cast<int32_t>(0x80268001u);
constexpr int busy = static_cast<int32_t>(0x80268007u);
AudioOut2::AudioOut2UserHandle user = 0;
Check(AudioOut2::AudioOut2UserCreate(1000, nullptr) == invalid_param,
"null user handle output was accepted");
Check(AudioOut2::AudioOut2UserCreate(1000, &user) == OK, "user create failed");
uint32_t context_attributes = UINT32_MAX;
uint32_t port_attributes = UINT32_MAX;
Check(AudioOut2::AudioOut2UserGetSupportedAttributes(user, &context_attributes,
&port_attributes) == OK &&
context_attributes == 0 && port_attributes == 0x103,
"user capabilities do not match implemented attributes");
context_attributes = port_attributes = UINT32_MAX;
Check(AudioOut2::AudioOut2UserGetSupportedAttributes(user, nullptr, &port_attributes) ==
invalid_param &&
AudioOut2::AudioOut2UserGetSupportedAttributes(user, &context_attributes, nullptr) ==
invalid_param &&
context_attributes == UINT32_MAX && port_attributes == UINT32_MAX,
"null capability outputs were accepted or modified");
for (const auto invalid: {AudioOut2::AudioOut2UserHandle {0}, UINTPTR_MAX}) {
Check(AudioOut2::AudioOut2UserGetSupportedAttributes(invalid, &context_attributes,
&port_attributes) == invalid_param &&
context_attributes == UINT32_MAX && port_attributes == UINT32_MAX,
"invalid user capabilities succeeded or modified outputs");
}
const auto context = CreateContext();
auto param = MakeParam();
param.user_handle = user;
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"user port create failed");
Check(AudioOut2::AudioOut2UserDestroy(user) == busy,
"user was destroyed while owning a port");
AudioOut2::AudioOut2ContextDestroy(context);
Check(AudioOut2::AudioOut2UserDestroy(user) == OK, "unused user destroy failed");
Check(AudioOut2::AudioOut2UserGetSupportedAttributes(user, &context_attributes,
&port_attributes) == invalid_param &&
context_attributes == UINT32_MAX && port_attributes == UINT32_MAX &&
AudioOut2::AudioOut2UserDestroy(user) == invalid_param,
"destroyed user remained valid");
const auto new_context = CreateContext();
Check(AudioOut2::AudioOut2PortCreate(new_context, AsParam(&param), &port) == invalid_param,
"destroyed user acquired a port");
AudioOut2::AudioOut2ContextDestroy(new_context);
}
void BlockDeviceOpens() {
std::lock_guard lock(g_device_mutex);
g_open_waiters = 0;
g_block_opens = true;
}
void WaitForDeviceOpens(int count) {
std::unique_lock lock(g_device_mutex);
g_device_cv.wait(lock, [count]() { return g_open_waiters >= count; });
}
void ReleaseDeviceOpens() {
std::lock_guard lock(g_device_mutex);
g_block_opens = false;
g_device_cv.notify_all();
}
int LiveDeviceCount() {
std::lock_guard lock(g_device_mutex);
return static_cast<int>(g_live_devices.size());
}
void SetPcm(AudioOut2::AudioOut2PortHandle port, const void* data) {
const Pcm pcm {data};
const Attribute attribute {0, 0, &pcm, sizeof(pcm)};
Check(AudioOut2::AudioOut2PortSetAttributes(port, AsAttribute(&attribute), 1) == OK,
"setting PCM failed");
}
template <typename T>
void SetAttribute(AudioOut2::AudioOut2PortHandle port, uint32_t id, const T& value) {
const Attribute attribute {id, 0, &value, sizeof(value)};
Check(AudioOut2::AudioOut2PortSetAttributes(port, AsAttribute(&attribute), 1) == OK,
"setting attribute failed");
}
void ResetOutputCalls() {
std::lock_guard lock(g_device_mutex);
g_output_blocking.clear();
}
std::vector<bool> OutputCalls() {
std::lock_guard lock(g_device_mutex);
return g_output_blocking;
}
void CaptureOutputPcm(size_t bytes) {
std::lock_guard lock(g_device_mutex);
g_capture_bytes = bytes;
g_output_pcm.clear();
}
std::vector<std::vector<uint8_t>> OutputPcm() {
std::lock_guard lock(g_device_mutex);
return g_output_pcm;
}
std::vector<std::vector<uint8_t>> PushPcm(AudioOut2::AudioOut2ContextHandle context, size_t bytes) {
CaptureOutputPcm(bytes);
Check(AudioOut2::AudioOut2ContextPush(context, 1) == OK, "PCM push failed");
auto output = OutputPcm();
CaptureOutputPcm(0);
return output;
}
void CheckSamples(const std::vector<uint8_t>& pcm, std::initializer_list<float> frame, const char* message) {
Check(!pcm.empty() && pcm.size() % (frame.size() * sizeof(float)) == 0, "incorrect PCM size");
for (size_t i = 0; i < pcm.size() / sizeof(float); i++) {
float sample;
std::memcpy(&sample, pcm.data() + i * sizeof(float), sizeof(float));
Check(std::abs(sample - *(frame.begin() + i % frame.size())) < 0.000001f, message);
}
}
void TestSlotReuse() {
const auto context = CreateContext();
const auto param = MakeParam();
for (int i = 0; i < 300; i++) {
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"port slot was not reusable");
Check(port != 0, "port handle is zero");
AudioOut2::AudioOut2PortDestroy(port);
}
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestFullTableRecovers() {
const auto context = CreateContext();
const auto param = MakeParam();
std::vector<AudioOut2::AudioOut2PortHandle> ports;
ports.reserve(256);
for (int i = 0; i < 256; i++) {
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"port table filled early");
ports.push_back(port);
}
AudioOut2::AudioOut2PortHandle overflow = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &overflow) != OK,
"full port table accepted another port");
for (auto port: ports) {
AudioOut2::AudioOut2PortDestroy(port);
}
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"port table did not recover");
AudioOut2::AudioOut2PortDestroy(port);
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestConcurrentCreates() {
constexpr int thread_count = 8;
const auto context = CreateContext();
const auto param = MakeParam(0x800);
std::vector<AudioOut2::AudioOut2PortHandle> ports(thread_count);
std::vector<int> results(thread_count);
std::vector<std::thread> threads;
BlockDeviceOpens();
for (int i = 0; i < thread_count; i++) {
threads.emplace_back([&, i]() {
results[i] = AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &ports[i]);
});
}
WaitForDeviceOpens(thread_count);
ReleaseDeviceOpens();
for (auto& thread: threads) {
thread.join();
}
for (int i = 0; i < thread_count; i++) {
Check(results[i] == OK, "concurrent port create failed");
PortState state {};
AudioOut2::AudioOut2PortGetState(ports[i], AsState(&state));
Check(state.num_channels == 8, "concurrent create lost its reserved slot");
AudioOut2::AudioOut2PortDestroy(ports[i]);
}
Check(LiveDeviceCount() == 0, "concurrent create leaked a device");
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestContextDestroyCancelsPendingCreate() {
const auto context = CreateContext();
const auto param = MakeParam();
AudioOut2::AudioOut2PortHandle port = 0;
int result = OK;
BlockDeviceOpens();
std::thread creator(
[&]() { result = AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port); });
WaitForDeviceOpens(1);
AudioOut2::AudioOut2ContextDestroy(context);
ReleaseDeviceOpens();
creator.join();
Check(result != OK, "destroyed context retained a pending port create");
Check(LiveDeviceCount() == 0, "cancelled port create leaked a device");
}
void TestSynchronousDevicePushBypassesModelledQueue() {
const auto context = CreateContext(1);
const auto param = MakeParam();
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"device port create failed");
uint32_t pcm[512] {};
SetPcm(port, pcm);
ResetOutputCalls();
Check(AudioOut2::AudioOut2ContextPush(context, 1) == OK, "first sync push failed");
Check(AudioOut2::AudioOut2ContextPush(context, 1) == OK,
"device-paced sync push was blocked by modelled queue");
const auto calls = OutputCalls();
Check(calls.size() == 2, "sync pushes did not reach the device backend");
Check(calls[0] && calls[1], "sync pushes lost their blocking mode");
AudioOut2::AudioOut2PortDestroy(port);
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestFloat12ChannelPortOutputsPcm() {
const auto context = CreateContext();
const auto param = MakeParam(0x0c00);
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"12-channel port create failed");
Check(LiveDeviceCount() == 1, "12-channel port did not open an audio device");
PortState state {};
Check(AudioOut2::AudioOut2PortGetState(port, AsState(&state)) == OK,
"12-channel port state query failed");
Check(state.num_channels == 12, "12-channel port lost its guest channel count");
float pcm[512 * 12] {};
SetPcm(port, pcm);
ResetOutputCalls();
Check(AudioOut2::AudioOut2ContextPush(context, 1) == OK, "12-channel PCM push failed");
const auto calls = OutputCalls();
Check(calls.size() == 1 && calls[0], "12-channel PCM did not reach the device backend");
AudioOut2::AudioOut2PortDestroy(port);
Check(LiveDeviceCount() == 0, "12-channel port leaked its audio device");
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestAsynchronousDevicePushKeepsQueueBounded() {
const auto context = CreateContext(1);
const auto param = MakeParam();
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"device port create failed");
uint32_t pcm[512] {};
SetPcm(port, pcm);
ResetOutputCalls();
Check(AudioOut2::AudioOut2ContextPush(context, 0) == OK, "first async push failed");
Check(AudioOut2::AudioOut2ContextPush(context, 0) != OK,
"full async queue accepted another buffer");
const auto calls = OutputCalls();
Check(calls.size() == 1 && !calls[0], "rejected async push reached the device backend");
uint32_t queued = 0;
uint32_t available = 0;
Check(AudioOut2::AudioOut2ContextGetQueueLevel(context, &queued, &available) == OK,
"queue-level query failed");
Check(queued == 1 && available == 0, "async queue level does not match accepted pushes");
AudioOut2::AudioOut2PortDestroy(port);
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestHandleWithoutPcmDoesNotBypassQueue() {
const auto context = CreateContext(1);
const auto param = MakeParam();
AudioOut2::AudioOut2PortHandle port = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &port) == OK,
"device port create failed");
ResetOutputCalls();
Check(AudioOut2::AudioOut2ContextPush(context, 1) == OK, "empty sync push failed");
Check(AudioOut2::AudioOut2ContextPush(context, 0) != OK,
"handle without PCM bypassed queue backpressure");
Check(OutputCalls().empty(), "empty push reached the device backend");
AudioOut2::AudioOut2PortDestroy(port);
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestPcmCopiedBeforeScratchBufferReuse() {
const auto context = CreateContext();
const auto param = MakeParam();
AudioOut2::AudioOut2PortHandle first = 0;
AudioOut2::AudioOut2PortHandle second = 0;
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &first) == OK,
"first port create failed");
Check(AudioOut2::AudioOut2PortCreate(context, AsParam(&param), &second) == OK,
"second port create failed");
std::vector<float> scratch(512 * 2);
std::vector<float> first_pcm(scratch.size(), 0.25f);
std::vector<float> second_pcm(scratch.size(), -0.5f);
std::copy(first_pcm.begin(), first_pcm.end(), scratch.begin());
SetPcm(first, scratch.data());
std::copy(second_pcm.begin(), second_pcm.end(), scratch.begin());
SetPcm(second, scratch.data());
std::fill(scratch.begin(), scratch.end(), 0.0f);
const auto pcm_bytes = scratch.size() * sizeof(float);
CaptureOutputPcm(pcm_bytes);
Check(AudioOut2::AudioOut2ContextPush(context, 1) == OK, "shared-buffer push failed");
const auto output = OutputPcm();
Check(output.size() == 2, "shared-buffer push did not output both ports");
Check(std::memcmp(output[0].data(), first_pcm.data(), pcm_bytes) == 0,
"first port lost PCM when scratch buffer was reused");
Check(std::memcmp(output[1].data(), second_pcm.data(), pcm_bytes) == 0,
"second port lost PCM when scratch buffer was reused");
CaptureOutputPcm(0);
AudioOut2::AudioOut2PortDestroy(first);
AudioOut2::AudioOut2PortDestroy(second);
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestPortGainAndValidation() {
const auto context = CreateContext();
const auto port = CreatePort(context, MakeParam());
std::vector<float> pcm(512 * 2, 0.25f);
SetPcm(port, pcm.data());
auto check_output = [&](const std::array<float, 2>& gain, float expected_pcm) {
CheckSamples(PushPcm(context, pcm.size() * sizeof(float)).at(0), {expected_pcm},
"gain modified stored PCM");
std::lock_guard lock(g_device_mutex);
Check(g_output_gains.size() == 1 && g_output_gains[0] == gain,
"incorrect per-channel gain forwarded to backend");
};
check_output({1.0f, 1.0f}, 0.25f);
for (const std::array<float, 2> gain: {std::array {2.0f, 0.5f}, {0.0f, 0.0f}, {1.0f, 1.0f}}) {
SetAttribute(port, 1, gain);
check_output(gain, 0.25f);
check_output(gain, 0.25f);
}
const std::array gain {0.5f, 0.25f};
SetAttribute(port, 1, gain);
std::fill(pcm.begin(), pcm.end(), 0.75f);
SetPcm(port, pcm.data());
check_output(gain, 0.75f);
std::fill(pcm.begin(), pcm.end(), -0.25f);
const Pcm replacement {pcm.data()};
for (const float invalid: {-1.0f, std::numeric_limits<float>::infinity(),
std::numeric_limits<float>::quiet_NaN()}) {
const std::array invalid_gain {1.0f, invalid};
const Attribute attributes[] {{0, 0, &replacement, sizeof(replacement)},
{1, 0, &invalid_gain, sizeof(invalid_gain)}};
Check(AudioOut2::AudioOut2PortSetAttributes(port, AsAttribute(attributes), 2) ==
static_cast<int32_t>(0x80268001u), "invalid gain was accepted");
check_output(gain, 0.75f);
}
for (const Attribute attribute: {Attribute {1, 0, nullptr, sizeof(gain)},
Attribute {1, 0, &gain, sizeof(float)}}) {
Check(AudioOut2::AudioOut2PortSetAttributes(port, AsAttribute(&attribute), 1) ==
static_cast<int32_t>(0x80268001u), "malformed gain was accepted");
}
const Attribute duplicates[] {{0, 0, &replacement, sizeof(replacement)},
{1, 0, &gain, sizeof(gain)}, {1, 0, &gain, sizeof(gain)}};
Check(AudioOut2::AudioOut2PortSetAttributes(port, AsAttribute(duplicates), 3) ==
static_cast<int32_t>(0x80268001u), "duplicate gain attributes were accepted");
check_output(gain, 0.75f);
AudioOut2::AudioOut2ContextDestroy(context);
}
void TestObjectGainAndAmbisonics() {
constexpr float half_power = 0.70710678f;
struct Coefficients { uint32_t channel; float left; float right; };
constexpr Coefficients cases[] {{UINT32_MAX, half_power, half_power}, {0, 1.0f, 1.0f},
{1, 0.0f, 0.0f}, {2, half_power, -half_power}, {3, 0.0f, 0.0f},
{64, half_power, half_power}, {65, half_power, -half_power},
{66, 0.0f, 0.0f}, {99, 0.0f, 0.0f}};
for (const auto format: {0x100u, 0x101u}) {
const auto context = CreateContext(1, 1);
auto param = MakeParam(format);
param.port_type = 0x100;
const auto object = CreatePort(context, param);
Check(LiveDeviceCount() == 1, "object-only context did not create one output device");
std::vector<float> floating(512, 0.5f);
std::vector<int16_t> integer(512, 16384);
const void* pcm = format == 0x100 ? static_cast<const void*>(floating.data()) : integer.data();
constexpr auto output_bytes = 512 * 2 * sizeof(float);
SetPcm(object, pcm);
std::fill(floating.begin(), floating.end(), 0.0f);
std::fill(integer.begin(), integer.end(), 0);
SetAttribute(object, 1, 0.0f);
SetAttribute(object, 8, 65u);
for (int push = 0; push < 2; push++) {
const auto output = PushPcm(context, output_bytes);
Check(output.size() == 1, "object-only push did not output exactly once");
CheckSamples(output[0], {0.5f * half_power, 0.5f * half_power},
"object PCM ownership, default gain, or attribute freeze failed");
}
std::fill(floating.begin(), floating.end(), 0.5f);
std::fill(integer.begin(), integer.end(), 16384);
for (const auto& test: cases) {
Check(AudioOut2::AudioOut2ContextAdvance(context) == OK, "context advance failed");
const Pcm input {pcm};
const float gain = 0.5f;
const Attribute attributes[] {{0, 0, &input, sizeof(input)}, {1, 0, &gain, sizeof(gain)},
{8, 0, &test.channel, sizeof(test.channel)}};
Check(AudioOut2::AudioOut2PortSetAttributes(object, AsAttribute(attributes), 3) == OK,
"object attributes could not be set atomically with PCM first");
for (int push = 0; push < 2; push++) {
CheckSamples(PushPcm(context, output_bytes).at(0), {0.25f * test.left, 0.25f * test.right},
"object gain or ambisonics decoded incorrectly or accumulated across pushes");
}
}
AudioOut2::AudioOut2ContextAdvance(context);
SetAttribute(object, 8, UINT32_MAX);
SetAttribute(object, 1, 0.0f);
SetPcm(object, pcm);
CheckSamples(PushPcm(context, output_bytes).at(0), {0.0f}, "zero gain did not mute object");
AudioOut2::AudioOut2ContextAdvance(context);
SetPcm(object, pcm);
CheckSamples(PushPcm(context, output_bytes).at(0), {0.0f}, "object gain did not persist");
AudioOut2::AudioOut2ContextDestroy(context);
Check(LiveDeviceCount() == 0, "object context leaked its output device");
}
}
void TestObjectBusRouting() {
const auto context = CreateContext(1, 2);
const auto other_context = CreateContext(1, 1);
AudioOut2::AudioOut2UserHandle other_user = 0;
Check(AudioOut2::AudioOut2UserCreate(2000, &other_user) == OK, "second user create failed");
const auto first = CreatePort(context, MakeParam());
const auto second = CreatePort(context, MakeParam());
std::vector<float> bed(512 * 2, 0.125f);
SetPcm(first, bed.data());
SetPcm(second, bed.data());
auto param = MakeParam(0x100);
param.port_type = 0x100;
std::vector<float> object_pcm(512, 0.25f);
SetPcm(CreatePort(context, param), object_pcm.data());
param.user_handle = other_user;
SetPcm(CreatePort(context, param), object_pcm.data());
std::fill(object_pcm.begin(), object_pcm.end(), 1.0f);
SetPcm(CreatePort(other_context, param), object_pcm.data());
constexpr auto bytes = 512 * 2 * sizeof(float);
for (int push = 0; push < 2; push++) {
const auto output = PushPcm(context, bytes);
Check(output.size() == 3, "object bus was missing or queued more than once");
CheckSamples(output[0], {0.125f}, "objects modified first bed");
CheckSamples(output[1], {0.125f}, "objects modified second bed");
CheckSamples(output[2], {0.35355339f}, "MAIN objects failed to mix across users or leaked contexts");
}
SetPcm(first, nullptr);
SetPcm(second, nullptr);
CheckSamples(PushPcm(context, bytes).at(0), {0.35355339f}, "object output depended on bed PCM");
AudioOut2::AudioOut2ContextDestroy(context);
Check(LiveDeviceCount() == 1, "context destroy closed another context's object device");
CheckSamples(PushPcm(other_context, bytes).at(0), {0.70710678f}, "other context lost its object PCM");
AudioOut2::AudioOut2ContextDestroy(other_context);
Check(AudioOut2::AudioOut2UserDestroy(other_user) == OK, "second user destroy failed");
Check(LiveDeviceCount() == 0, "object bus device leaked");
}
} // namespace
namespace Libs::Audio::AudioInternal {
int AudioOutOpen(int type, uint32_t /*samples_num*/, uint32_t /*freq*/, Format /*format*/) {
std::unique_lock lock(g_device_mutex);
const int handle = g_next_device++;
g_live_devices.push_back(handle);
if (type != 10) {
g_device_backed_handles.push_back(handle);
}
g_open_waiters++;
g_device_cv.notify_all();
g_device_cv.wait(lock, []() { return !g_block_opens; });
return handle;
}
void AudioOutClose(int handle) {
std::lock_guard lock(g_device_mutex);
const auto it = std::find(g_live_devices.begin(), g_live_devices.end(), handle);
if (it != g_live_devices.end()) {
g_live_devices.erase(it);
}
const auto device_it =
std::find(g_device_backed_handles.begin(), g_device_backed_handles.end(), handle);
if (device_it != g_device_backed_handles.end()) {
g_device_backed_handles.erase(device_it);
}
}
bool AudioOutHasDevice(int handle) {
std::lock_guard lock(g_device_mutex);
return std::find(g_device_backed_handles.begin(), g_device_backed_handles.end(), handle) !=
g_device_backed_handles.end();
}
uint32_t AudioOutOutputs(const OutputParam* params, uint32_t num, bool blocking) {
std::lock_guard lock(g_device_mutex);
g_output_blocking.push_back(blocking);
g_output_gains.clear();
if (g_capture_bytes != 0) {
for (uint32_t i = 0; i < num; i++) {
const auto* bytes = static_cast<const uint8_t*>(params[i].data);
g_output_pcm.emplace_back(bytes, bytes + g_capture_bytes);
g_output_gains.push_back(params[i].gains != nullptr
? std::array {params[i].gains[0], params[i].gains[1]}
: std::array {1.0f, 1.0f});
}
}
return 0;
}
} // namespace Libs::Audio::AudioInternal
namespace Libs::LibKernel {
uint64_t KYTY_SYSV_ABI KernelGetProcessTime() {
static std::atomic_uint64_t now {0};
return now.fetch_add(1000);
}
} // namespace Libs::LibKernel
int main() {
Check(AudioOut2::AudioOut2UserCreate(1000, &g_user_handle) == OK, "test user create failed");
TestUserSupportedAttributes();
TestSlotReuse();
TestFullTableRecovers();
TestConcurrentCreates();
TestContextDestroyCancelsPendingCreate();
TestSynchronousDevicePushBypassesModelledQueue();
TestFloat12ChannelPortOutputsPcm();
TestAsynchronousDevicePushKeepsQueueBounded();
TestHandleWithoutPcmDoesNotBypassQueue();
TestPcmCopiedBeforeScratchBufferReuse();
TestPortGainAndValidation();
TestObjectGainAndAmbisonics();
TestObjectBusRouting();
Check(AudioOut2::AudioOut2UserDestroy(g_user_handle) == OK, "test user destroy failed");
std::printf("AudioOut2PortTests: all cases passed\n");
return 0;
}