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1 /*
2  * Copyright (c) 2022 Huawei Device Co., Ltd.
3  * Licensed under the Apache License, Version 2.0 (the "License");
4  * you may not use this file except in compliance with the License.
5  * You may obtain a copy of the License at
6  *
7  *     http://www.apache.org/licenses/LICENSE-2.0
8  *
9  * Unless required by applicable law or agreed to in writing, software
10  * distributed under the License is distributed on an "AS IS" BASIS,
11  * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
12  * See the License for the specific language governing permissions and
13  * limitations under the License.
14  */
15 
16 #include "thermal_hdf_timer.h"
17 #include <cerrno>
18 #include <thread>
19 #include <fcntl.h>
20 #include <unistd.h>
21 #include <hdf_base.h>
22 #include <sys/socket.h>
23 #include <sys/epoll.h>
24 #include <sys/timerfd.h>
25 #include <linux/netlink.h>
26 #include "thermal_log.h"
27 
28 namespace OHOS {
29 namespace HDI {
30 namespace Thermal {
31 namespace V1_0 {
32 namespace {
33 const int32_t MS_PER_SECOND = 1000;
34 const std::string THERMAL_SIMULATION_TAG = "sim_tz";
35 }
ThermalHdfTimer(const std::shared_ptr<ThermalSimulationNode> & node,const std::shared_ptr<ThermalZoneManager> & thermalZoneMgr)36 ThermalHdfTimer::ThermalHdfTimer(const std::shared_ptr<ThermalSimulationNode> &node,
37     const std::shared_ptr<ThermalZoneManager> &thermalZoneMgr)
38 {
39     node_ = node;
40     thermalZoneMgr_ = thermalZoneMgr;
41     reportTime_ = 0;
42 }
43 
~ThermalHdfTimer()44 ThermalHdfTimer::~ThermalHdfTimer()
45 {
46     isRunning_ = false;
47     if (callbackThread_ != nullptr && callbackThread_->joinable()) {
48         callbackThread_->join();
49     }
50 }
51 
SetThermalEventCb(const sptr<IThermalCallback> & thermalCb)52 void ThermalHdfTimer::SetThermalEventCb(const sptr<IThermalCallback> &thermalCb)
53 {
54     thermalCb_ = thermalCb;
55 }
56 
SetSimluationFlag()57 void ThermalHdfTimer::SetSimluationFlag()
58 {
59     auto baseConfigList = ThermalHdfConfig::GetInsance().GetBaseConfig()->GetBaseItem();
60     if (baseConfigList.empty()) {
61         THERMAL_HILOGE(COMP_HDI, "baseConfigList is empty");
62         return;
63     }
64     auto baseIter = std::find(baseConfigList.begin(), baseConfigList.end(), THERMAL_SIMULATION_TAG);
65     if (baseIter != baseConfigList.end()) {
66         isSim_ = atoi(baseIter->value.c_str());
67         THERMAL_HILOGI(COMP_HDI, "isSim value:%{public}d", isSim_);
68     } else {
69         THERMAL_HILOGI(COMP_HDI, "not found");
70     }
71 }
72 
SetSimFlag(int32_t flag)73 void ThermalHdfTimer::SetSimFlag(int32_t flag)
74 {
75     isSim_ = flag;
76 }
77 
GetSimluationFlag()78 int32_t ThermalHdfTimer::GetSimluationFlag()
79 {
80     return isSim_;
81 }
82 
TimerProviderCallback()83 void ThermalHdfTimer::TimerProviderCallback()
84 {
85     reportTime_ = reportTime_ + 1;
86     ReportThermalData();
87     ResetCount();
88     return;
89 }
90 
LoopingThreadEntry()91 void ThermalHdfTimer::LoopingThreadEntry()
92 {
93     while (isRunning_) {
94         std::this_thread::sleep_for(std::chrono::seconds(thermalZoneMgr_->maxCd_ / MS_PER_SECOND));
95         TimerProviderCallback();
96     }
97 }
98 
Run()99 void ThermalHdfTimer::Run()
100 {
101     callbackThread_ = std::make_unique<std::thread>(&ThermalHdfTimer::LoopingThreadEntry, this);
102 }
103 
StartThread()104 void ThermalHdfTimer::StartThread()
105 {
106     Run();
107 }
108 
Init()109 int32_t ThermalHdfTimer::Init()
110 {
111     thermalDfx_ = std::make_unique<ThermalDfx>();
112     if (thermalDfx_ != nullptr) {
113         thermalDfx_->Init();
114     }
115     StartThread();
116     return HDF_SUCCESS;
117 }
118 
ReportThermalData()119 void ThermalHdfTimer::ReportThermalData()
120 {
121     if (thermalCb_ == nullptr) {
122         THERMAL_HILOGE(COMP_HDI, "check thermalCb_ failed");
123         return;
124     }
125 
126     thermalZoneMgr_->ReportThermalZoneData(reportTime_, multipleList_);
127     tzInfoEvent_ = thermalZoneMgr_->GetCallbackInfo();
128     // callback thermal event
129     thermalCb_->OnThermalDataEvent(tzInfoEvent_);
130 }
131 
ResetCount()132 void ThermalHdfTimer::ResetCount()
133 {
134     THERMAL_HILOGI(COMP_HDI, "multipleList_:%{public}zu", multipleList_.size());
135     if (multipleList_.empty()) return;
136 
137     int32_t maxValue = *(std::max_element(multipleList_.begin(), multipleList_.end()));
138     if (reportTime_ == maxValue) {
139         THERMAL_HILOGI(COMP_HDI, "reportTime:%{public}d", reportTime_);
140         reportTime_ = 0;
141     }
142     tzInfoEvent_.info.clear();
143 }
144 
DumpSensorConfigInfo()145 void ThermalHdfTimer::DumpSensorConfigInfo()
146 {
147     auto sensorTypeMap = ThermalHdfConfig::GetInsance().GetSensorTypeMap();
148     for (auto sensorIter : sensorTypeMap) {
149         THERMAL_HILOGI(COMP_HDI, "groupName %{public}s, interval %{public}d, multiple %{public}d",
150             sensorIter.first.c_str(), sensorIter.second->GetInterval(), sensorIter.second->multiple_);
151         for (auto tzIter : sensorIter.second->GetXMLThermalZoneInfo()) {
152             THERMAL_HILOGI(COMP_HDI, "type %{public}s, replace %{public}s", tzIter.type.c_str(),
153                 tzIter.replace.c_str());
154         }
155         for (auto tnIter : sensorIter.second->GetXMLThermalNodeInfo()) {
156             THERMAL_HILOGI(COMP_HDI, "type %{public}s", tnIter.type.c_str());
157         }
158         for (auto dataIter : sensorIter.second->thermalDataList_) {
159             THERMAL_HILOGI(COMP_HDI, "data type %{public}s", dataIter.type.c_str());
160         }
161     }
162 }
163 } // V1_0
164 } // Thermal
165 } // HDI
166 } // OHOS
167