unplugged-system/frameworks/native/services/surfaceflinger/Scheduler/LayerInfo.cpp

650 lines
24 KiB
C++

/*
* Copyright 2020 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
// TODO(b/129481165): remove the #pragma below and fix conversion issues
#pragma clang diagnostic push
#pragma clang diagnostic ignored "-Wextra"
// #define LOG_NDEBUG 0
#define ATRACE_TAG ATRACE_TAG_GRAPHICS
#include "LayerInfo.h"
#ifdef MTK_SF_MSYNC_3
#include <android-base/properties.h>
#endif
#include <algorithm>
#include <utility>
#include <cutils/compiler.h>
#include <cutils/trace.h>
#include <ftl/enum.h>
#include <gui/TraceUtils.h>
#undef LOG_TAG
#define LOG_TAG "LayerInfo"
namespace android::scheduler {
bool LayerInfo::sTraceEnabled = false;
#ifdef MTK_SF_MSYNC_3
#define NEED_PROMOTE_FPS_SURFACE_VIEW "SurfaceView[tv.danmaku.bili"
#define NEED_PROMOTE_FPS_THRESHOLD_LOW 30
#define NEED_PROMOTE_FPS_THRESHOLD_HIGH 60
static int sDefaultRefreshRate = 60;
static bool sShowContentDetectionDetailLog = false;
static bool sUseNoPerceptionAnimation = false;
static int sTouchScrollTimer = 0;
static bool isSupportContentDetection() {
static bool enable = false;
static bool read = false;
if (!read) {
enable = android::base::GetBoolProperty("debug.sf.use_content_detection_for_refresh_rate", false);
sDefaultRefreshRate = android::base::GetIntProperty("debug.sf.default_refresh_rate", 60);
sShowContentDetectionDetailLog = android::base::GetBoolProperty("debug.sf.show_content_detection_detail_log", false);
sUseNoPerceptionAnimation = android::base::GetBoolProperty("debug.sf.use_no_perception_animation", false);
sTouchScrollTimer = android::base::GetIntProperty("debug.sf.touch_scroll_timer", 1500);
read = true;
}
return enable;
}
static bool isShowCDDetailLog() {
return sShowContentDetectionDetailLog;
}
static bool isUseNoPerceptionAnimation() {
return sUseNoPerceptionAnimation;
}
static int init __attribute((unused)) = (isSupportContentDetection(), 0);
#endif
LayerInfo::LayerInfo(const std::string& name, uid_t ownerUid,
LayerHistory::LayerVoteType defaultVote)
: mName(name),
mOwnerUid(ownerUid),
mDefaultVote(defaultVote),
mLayerVote({defaultVote, Fps()}),
mLayerProps(std::make_unique<LayerProps>()),
mRefreshRateHistory(name) {
;
}
void LayerInfo::setLastPresentTime(nsecs_t lastPresentTime, nsecs_t now, LayerUpdateType updateType,
bool pendingModeChange, const LayerProps& props) {
lastPresentTime = std::max(lastPresentTime, static_cast<nsecs_t>(0));
mLastUpdatedTime = std::max(lastPresentTime, now);
#ifdef MTK_SF_MSYNC_3
if (/*isSupportContentDetection() &&*/ updateType == LayerUpdateType::SetFrameRate) {
int oldFps = mLayerProps->setFrameRateVote.rate.getIntValue();
int newFps = props.setFrameRateVote.rate.getIntValue();
//ALOGI("%s: %s old fps=%d, new fps=%d", __func__, mName.c_str(), oldFps, newFps);
if (oldFps > 0 && oldFps < 1000 && newFps == 1000) {
mTouchScrollModeEndTime = systemTime();
} else if (oldFps == 1000 && (newFps == 0 || newFps == 1001 || newFps == 30 || newFps == 60)) {
mTouchScrollModeEndTime = 0;
}
}
#endif
*mLayerProps = props;
switch (updateType) {
case LayerUpdateType::AnimationTX:
mLastAnimationTime = std::max(lastPresentTime, now);
break;
case LayerUpdateType::SetFrameRate:
case LayerUpdateType::Buffer:
FrameTimeData frameTime = {.presentTime = lastPresentTime,
.queueTime = mLastUpdatedTime,
.pendingModeChange = pendingModeChange};
mFrameTimes.push_back(frameTime);
if (mFrameTimes.size() > HISTORY_SIZE) {
mFrameTimes.pop_front();
}
break;
}
}
bool LayerInfo::isFrameTimeValid(const FrameTimeData& frameTime) const {
return frameTime.queueTime >= std::chrono::duration_cast<std::chrono::nanoseconds>(
mFrameTimeValidSince.time_since_epoch())
.count();
}
LayerInfo::Frequent LayerInfo::isFrequent(nsecs_t now) const {
// If we know nothing about this layer (e.g. after touch event),
// we consider it as frequent as it might be the start of an animation.
if (mFrameTimes.size() < kFrequentLayerWindowSize) {
return {/* isFrequent */ true, /* clearHistory */ false, /* isConclusive */ true};
}
// Non-active layers are also infrequent
if (mLastUpdatedTime < getActiveLayerThreshold(now)) {
return {/* isFrequent */ false, /* clearHistory */ false, /* isConclusive */ true};
}
// We check whether we can classify this layer as frequent or infrequent:
// - frequent: a layer posted kFrequentLayerWindowSize within
// kMaxPeriodForFrequentLayerNs of each other.
// - infrequent: a layer posted kFrequentLayerWindowSize with longer
// gaps than kFrequentLayerWindowSize.
// If we can't determine the layer classification yet, we return the last
// classification.
bool isFrequent = true;
bool isInfrequent = true;
const auto n = mFrameTimes.size() - 1;
for (size_t i = 0; i < kFrequentLayerWindowSize - 1; i++) {
if (mFrameTimes[n - i].queueTime - mFrameTimes[n - i - 1].queueTime <
kMaxPeriodForFrequentLayerNs.count()) {
isInfrequent = false;
} else {
isFrequent = false;
}
}
if (isFrequent || isInfrequent) {
// If the layer was previously inconclusive, we clear
// the history as indeterminate layers changed to frequent,
// and we should not look at the stale data.
return {isFrequent, isFrequent && !mIsFrequencyConclusive, /* isConclusive */ true};
}
// If we can't determine whether the layer is frequent or not, we return
// the last known classification and mark the layer frequency as inconclusive.
isFrequent = !mLastRefreshRate.infrequent;
// If the layer was previously tagged as animating, we clear
// the history as it is likely the layer just changed its behavior,
// and we should not look at stale data.
return {isFrequent, isFrequent && mLastRefreshRate.animating, /* isConclusive */ false};
}
Fps LayerInfo::getFps(nsecs_t now) const {
// Find the first active frame
auto it = mFrameTimes.begin();
for (; it != mFrameTimes.end(); ++it) {
if (it->queueTime >= getActiveLayerThreshold(now)) {
break;
}
}
const auto numFrames = std::distance(it, mFrameTimes.end());
if (numFrames < kFrequentLayerWindowSize) {
return Fps();
}
// Layer is considered frequent if the average frame rate is higher than the threshold
const auto totalTime = mFrameTimes.back().queueTime - it->queueTime;
return Fps::fromPeriodNsecs(totalTime / (numFrames - 1));
}
bool LayerInfo::isAnimating(nsecs_t now) const {
return mLastAnimationTime >= getActiveLayerThreshold(now);
}
bool LayerInfo::hasEnoughDataForHeuristic() const {
// The layer had to publish at least HISTORY_SIZE or HISTORY_DURATION of updates
if (mFrameTimes.size() < 2) {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s fewer than 2 frames recorded: %zu", __func__, mName.c_str(), mFrameTimes.size());
}
#else
ALOGV("fewer than 2 frames recorded: %zu", mFrameTimes.size());
#endif
return false;
}
if (!isFrameTimeValid(mFrameTimes.front())) {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s stale frames still captured", __func__, mName.c_str());
}
#else
ALOGV("stale frames still captured");
#endif
return false;
}
const auto totalDuration = mFrameTimes.back().queueTime - mFrameTimes.front().queueTime;
if (mFrameTimes.size() < HISTORY_SIZE && totalDuration < HISTORY_DURATION.count()) {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s not enough frames captured: %zu | %.2f seconds", __func__, mName.c_str(), mFrameTimes.size(),
totalDuration / 1e9f);
}
#else
ALOGV("not enough frames captured: %zu | %.2f seconds", mFrameTimes.size(),
totalDuration / 1e9f);
#endif
return false;
}
return true;
}
std::optional<nsecs_t> LayerInfo::calculateAverageFrameTime() const {
// Ignore frames captured during a mode change
const bool isDuringModeChange =
std::any_of(mFrameTimes.begin(), mFrameTimes.end(),
[](const auto& frame) { return frame.pendingModeChange; });
if (isDuringModeChange) {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s isDuringModeChange, return null", __func__, mName.c_str());
}
#endif
return std::nullopt;
}
const bool isMissingPresentTime =
std::any_of(mFrameTimes.begin(), mFrameTimes.end(),
[](auto frame) { return frame.presentTime == 0; });
if (isMissingPresentTime && !mLastRefreshRate.reported.isValid()) {
// If there are no presentation timestamps and we haven't calculated
// one in the past then we can't calculate the refresh rate
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s isMissingPresentTime, return null", __func__, mName.c_str());
}
#endif
return std::nullopt;
}
// Calculate the average frame time based on presentation timestamps. If those
// doesn't exist, we look at the time the buffer was queued only. We can do that only if
// we calculated a refresh rate based on presentation timestamps in the past. The reason
// we look at the queue time is to handle cases where hwui attaches presentation timestamps
// when implementing render ahead for specific refresh rates. When hwui no longer provides
// presentation timestamps we look at the queue time to see if the current refresh rate still
// matches the content.
auto getFrameTime = isMissingPresentTime ? [](FrameTimeData data) { return data.queueTime; }
: [](FrameTimeData data) { return data.presentTime; };
nsecs_t totalDeltas = 0;
int numDeltas = 0;
auto prevFrame = mFrameTimes.begin();
for (auto it = mFrameTimes.begin() + 1; it != mFrameTimes.end(); ++it) {
const auto currDelta = getFrameTime(*it) - getFrameTime(*prevFrame);
if (currDelta < kMinPeriodBetweenFrames) {
// Skip this frame, but count the delta into the next frame
continue;
}
prevFrame = it;
if (currDelta > kMaxPeriodBetweenFrames) {
// Skip this frame and the current delta.
continue;
}
totalDeltas += currDelta;
numDeltas++;
}
if (numDeltas == 0) {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s numDeltas == 0, return null", __func__, mName.c_str());
}
#endif
return std::nullopt;
}
const auto averageFrameTime = static_cast<double>(totalDeltas) / static_cast<double>(numDeltas);
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s averageFrameTime=%" PRId64, __func__, mName.c_str(), static_cast<nsecs_t>(averageFrameTime));
}
#endif
return static_cast<nsecs_t>(averageFrameTime);
}
std::optional<Fps> LayerInfo::calculateRefreshRateIfPossible(const RefreshRateSelector& selector,
nsecs_t now) {
ATRACE_CALL();
#ifdef MTK_SF_MSYNC_3
static constexpr float MARGIN = 1.0f; // 1Hz
bool bCheckDefaultDistance = false;
if (isSupportContentDetection() && mName.find("Wallpaper") != std::string::npos) {
bCheckDefaultDistance = true;
}
#else
static constexpr float MARGIN = 1.0f; // 1Hz
#endif
if (!hasEnoughDataForHeuristic()) {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s Not enough data", __func__, mName.c_str());
}
#else
ALOGV("Not enough data");
#endif
return std::nullopt;
}
if (const auto averageFrameTime = calculateAverageFrameTime()) {
const auto refreshRate = Fps::fromPeriodNsecs(*averageFrameTime);
const bool refreshRateConsistent = mRefreshRateHistory.add(refreshRate, now);
if (refreshRateConsistent) {
#ifdef MTK_SF_MSYNC_3
const auto knownRefreshRate = selector.findClosestKnownFrameRate(refreshRate, bCheckDefaultDistance);
#else
const auto knownRefreshRate = selector.findClosestKnownFrameRate(refreshRate);
#endif
using fps_approx_ops::operator!=;
// To avoid oscillation, use the last calculated refresh rate if it is close enough.
if (std::abs(mLastRefreshRate.calculated.getValue() - refreshRate.getValue()) >
MARGIN &&
mLastRefreshRate.reported != knownRefreshRate) {
mLastRefreshRate.calculated = refreshRate;
mLastRefreshRate.reported = knownRefreshRate;
}
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s %s rounded to nearest known frame rate %s", __func__, mName.c_str(),
to_string(refreshRate).c_str(), to_string(mLastRefreshRate.reported).c_str());
}
#else
ALOGV("%s %s rounded to nearest known frame rate %s", mName.c_str(),
to_string(refreshRate).c_str(), to_string(mLastRefreshRate.reported).c_str());
#endif
} else {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s Not stable (%s) returning last known frame rate %s", __func__, mName.c_str(),
to_string(refreshRate).c_str(), to_string(mLastRefreshRate.reported).c_str());
}
#else
ALOGV("%s Not stable (%s) returning last known frame rate %s", mName.c_str(),
to_string(refreshRate).c_str(), to_string(mLastRefreshRate.reported).c_str());
#endif
}
}
return mLastRefreshRate.reported.isValid() ? std::make_optional(mLastRefreshRate.reported)
: std::nullopt;
}
#ifdef MTK_SF_MSYNC_3
bool LayerInfo::hasSpecificFps(int fps, int *outFps) {
if (!isUseNoPerceptionAnimation()) {
return false;
}
if (fps > REFRESH_RATE_SET_DEFAULT_BY_AP) {
*outFps = fps - REFRESH_RATE_SET_DEFAULT_BY_AP;
} else {
*outFps = sDefaultRefreshRate;
}
return true;
}
#endif
LayerInfo::LayerVote LayerInfo::getRefreshRateVote(const RefreshRateSelector& selector,
nsecs_t now) {
ATRACE_CALL();
#ifdef MTK_SF_MSYNC_3
if (/*isSupportContentDetection() &&*/ mTouchScrollModeEndTime > 0) {
auto duration = systemTime() - mTouchScrollModeEndTime;
if (ns2ms(duration) < sTouchScrollTimer) {
if (isShowCDDetailLog()) {
ALOGI("%s: %s NoChange (scroll mode end elapsed %ld ms)", __func__,
mName.c_str(), long(ns2ms(duration)));
}
return {LayerHistory::LayerVoteType::NoChange, Fps()};
} else {
mTouchScrollModeEndTime = 0;
}
}
#endif
if (mLayerVote.type != LayerHistory::LayerVoteType::Heuristic) {
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog() && mLayerVote.type != LayerHistory::LayerVoteType::NoVote) {
ALOGI("%s: %s voted %d ", __func__, mName.c_str(), static_cast<int>(mLayerVote.type));
}
#else
ALOGV("%s voted %d ", mName.c_str(), static_cast<int>(mLayerVote.type));
#endif
return mLayerVote;
}
#ifdef MTK_SF_MSYNC_3
if (!isSupportContentDetection()) {
// Heuristic layer for 1000/1001/20xx fps
int outFps = 0;
if (hasSpecificFps(mLayerVote.fps.getIntValue(), &outFps)) {
if (isShowCDDetailLog()) {
ALOGI("%s: %s has specific fps=%d, Heuristic_Infrequent", __func__, mName.c_str(), outFps);
}
return {LayerHistory::LayerVoteType::Heuristic_Infrequent, Fps::fromValue(outFps)};
}
}
#endif
if (isAnimating(now)) {
ATRACE_FORMAT_INSTANT("animating");
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s is animating, Max", __func__, mName.c_str());
}
#else
ALOGV("%s is animating", mName.c_str());
#endif
mLastRefreshRate.animating = true;
return {LayerHistory::LayerVoteType::Max, Fps()};
}
const LayerInfo::Frequent frequent = isFrequent(now);
mIsFrequencyConclusive = frequent.isConclusive;
if (!frequent.isFrequent) {
ATRACE_FORMAT_INSTANT("infrequent");
#ifdef MTK_SF_MSYNC_3
if (isSupportContentDetection()) {
int outFps = 0;
if (hasSpecificFps(mLayerVote.fps.getIntValue(), &outFps)) {
if (isShowCDDetailLog()) {
ALOGI("%s: %s is infrequent, Heuristic_Infrequent", __func__, mName.c_str());
}
mLastRefreshRate.infrequent = true;
return {LayerHistory::LayerVoteType::Heuristic_Infrequent, Fps::fromValue(outFps)};
} else if (isShowCDDetailLog()) {
ALOGI("%s: %s is infrequent, Min", __func__, mName.c_str());
}
} else if (isShowCDDetailLog()) {
ALOGI("%s: %s is infrequent, Min", __func__, mName.c_str());
}
#else
ALOGV("%s is infrequent", mName.c_str());
#endif
mLastRefreshRate.infrequent = true;
// Infrequent layers vote for minimal refresh rate for
// battery saving purposes and also to prevent b/135718869.
return {LayerHistory::LayerVoteType::Min, Fps()};
}
if (frequent.clearHistory) {
clearHistory(now);
}
#ifdef MTK_SF_MSYNC_3
if (isSupportContentDetection() && !hasEnoughDataForHeuristic()) {
int outFps = 0;
if (hasSpecificFps(mLayerVote.fps.getIntValue(), &outFps)) {
if (isShowCDDetailLog()) {
ALOGI("%s: %s not enough data, Heuristic_Infrequent", __func__, mName.c_str());
}
return {LayerHistory::LayerVoteType::Heuristic_Infrequent, Fps::fromValue(outFps)};
}
}
#endif
auto refreshRate = calculateRefreshRateIfPossible(selector, now);
if (refreshRate.has_value()) {
#ifdef MTK_SF_MSYNC_3
if (isSupportContentDetection()) {
// some app need high refresh rate to reach avg fps
if (mName.compare(0, strlen(NEED_PROMOTE_FPS_SURFACE_VIEW), NEED_PROMOTE_FPS_SURFACE_VIEW) == 0) {
int outFps = 0;
if (refreshRate.value().getIntValue() <= NEED_PROMOTE_FPS_THRESHOLD_LOW) {
outFps = NEED_PROMOTE_FPS_THRESHOLD_LOW * 2;
if (isShowCDDetailLog()) {
ALOGI("%s: %s promote refresh rate to %d, Heuristic", __func__, mName.c_str(), outFps);
}
return {LayerHistory::LayerVoteType::Heuristic, Fps::fromValue(outFps)};
} /*else {
outFps = NEED_PROMOTE_FPS_THRESHOLD_HIGH * 2;
ALOGI("%s: %s promote refresh rate to %d, Exact", __func__, mName.c_str(), outFps);
return {LayerHistory::LayerVoteType::ExplicitExact, Fps::fromValue(outFps)};
}*/
} else if (isShowCDDetailLog()) {
ALOGI("%s: %s calculated refresh rate: %s, Heuristic", __func__, mName.c_str(), to_string(*refreshRate).c_str());
}
} else if (isShowCDDetailLog()) {
ALOGI("%s: %s calculated refresh rate: %s, Heuristic", __func__, mName.c_str(), to_string(*refreshRate).c_str());
}
#else
ALOGV("%s calculated refresh rate: %s", mName.c_str(), to_string(*refreshRate).c_str());
#endif
return {LayerHistory::LayerVoteType::Heuristic, refreshRate.value()};
}
#ifdef MTK_SF_MSYNC_3
if (isSupportContentDetection()) {
int outFps = 0;
if (hasSpecificFps(mLayerVote.fps.getIntValue(), &outFps)) {
if (isShowCDDetailLog()) {
ALOGI("%s: %s Heuristic (can't resolve refresh rate), default=%d", __func__, mName.c_str(), outFps);
}
return {LayerHistory::LayerVoteType::Heuristic, Fps::fromValue(outFps)};
} else if (isShowCDDetailLog()) {
ALOGI("%s: %s Max (can't resolve refresh rate)", __func__, mName.c_str());
}
} else if (isShowCDDetailLog()) {
ALOGI("%s: %s Max (can't resolve refresh rate)", __func__, mName.c_str());
}
#else
ALOGV("%s Max (can't resolve refresh rate)", mName.c_str());
#endif
return {LayerHistory::LayerVoteType::Max, Fps()};
}
const char* LayerInfo::getTraceTag(LayerHistory::LayerVoteType type) const {
if (mTraceTags.count(type) == 0) {
auto tag = "LFPS " + mName + " " + ftl::enum_string(type);
mTraceTags.emplace(type, std::move(tag));
}
return mTraceTags.at(type).c_str();
}
LayerInfo::FrameRate LayerInfo::getSetFrameRateVote() const {
return mLayerProps->setFrameRateVote;
}
bool LayerInfo::isVisible() const {
return mLayerProps->visible;
}
int32_t LayerInfo::getFrameRateSelectionPriority() const {
return mLayerProps->frameRateSelectionPriority;
}
FloatRect LayerInfo::getBounds() const {
return mLayerProps->bounds;
}
ui::Transform LayerInfo::getTransform() const {
return mLayerProps->transform;
}
LayerInfo::RefreshRateHistory::HeuristicTraceTagData
LayerInfo::RefreshRateHistory::makeHeuristicTraceTagData() const {
const std::string prefix = "LFPS ";
const std::string suffix = "Heuristic ";
return {.min = prefix + mName + suffix + "min",
.max = prefix + mName + suffix + "max",
.consistent = prefix + mName + suffix + "consistent",
.average = prefix + mName + suffix + "average"};
}
void LayerInfo::RefreshRateHistory::clear() {
mRefreshRates.clear();
}
bool LayerInfo::RefreshRateHistory::add(Fps refreshRate, nsecs_t now) {
mRefreshRates.push_back({refreshRate, now});
while (mRefreshRates.size() >= HISTORY_SIZE ||
now - mRefreshRates.front().timestamp > HISTORY_DURATION.count()) {
mRefreshRates.pop_front();
}
if (CC_UNLIKELY(sTraceEnabled)) {
if (!mHeuristicTraceTagData.has_value()) {
mHeuristicTraceTagData = makeHeuristicTraceTagData();
}
ATRACE_INT(mHeuristicTraceTagData->average.c_str(), refreshRate.getIntValue());
}
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s fps=%.2f", __func__, mName.c_str(), refreshRate.getValue());
}
#endif
return isConsistent();
}
bool LayerInfo::RefreshRateHistory::isConsistent() const {
if (mRefreshRates.empty()) return true;
const auto [min, max] =
std::minmax_element(mRefreshRates.begin(), mRefreshRates.end(),
[](const auto& lhs, const auto& rhs) {
return isStrictlyLess(lhs.refreshRate, rhs.refreshRate);
});
const bool consistent =
max->refreshRate.getValue() - min->refreshRate.getValue() < MARGIN_CONSISTENT_FPS;
if (CC_UNLIKELY(sTraceEnabled)) {
if (!mHeuristicTraceTagData.has_value()) {
mHeuristicTraceTagData = makeHeuristicTraceTagData();
}
ATRACE_INT(mHeuristicTraceTagData->max.c_str(), max->refreshRate.getIntValue());
ATRACE_INT(mHeuristicTraceTagData->min.c_str(), min->refreshRate.getIntValue());
ATRACE_INT(mHeuristicTraceTagData->consistent.c_str(), consistent);
}
#ifdef MTK_SF_MSYNC_3
if (isShowCDDetailLog()) {
ALOGI("%s: %s max=%.2f min=%.2f consistent=%d", __func__, mName.c_str(), max->refreshRate.getValue(),
min->refreshRate.getValue(), consistent);
}
#endif
return consistent;
}
} // namespace android::scheduler
// TODO(b/129481165): remove the #pragma below and fix conversion issues
#pragma clang diagnostic pop // ignored "-Wextra"