/*
 * Copyright (C) 2017, 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.
 */

#include <vector>

#include <gmock/gmock.h>
#include <gtest/gtest.h>
#include <wifi_system_test/mock_interface_tool.h>
#include "android/net/wifi/nl80211/IWifiScannerImpl.h"
#include "wificond/scanning/scanner_impl.h"
#include "wificond/tests/mock_client_interface_impl.h"
#include "wificond/tests/mock_netlink_manager.h"
#include "wificond/tests/mock_netlink_utils.h"
#include "wificond/tests/mock_scan_utils.h"

using ::android::binder::Status;
using ::android::net::wifi::nl80211::IWifiScannerImpl;
using ::android::net::wifi::nl80211::SingleScanSettings;
using ::android::net::wifi::nl80211::PnoNetwork;
using ::android::net::wifi::nl80211::PnoSettings;
using ::android::net::wifi::nl80211::NativeScanResult;
using ::android::wifi_system::MockInterfaceTool;
using ::testing::Eq;
using ::testing::Invoke;
using ::testing::NiceMock;
using ::testing::Return;
using ::testing::_;
using std::shared_ptr;
using std::unique_ptr;
using std::vector;

using namespace std::placeholders;

namespace android {
namespace wificond {

namespace {

constexpr uint32_t kFakeInterfaceIndex = 12;
constexpr uint32_t kFakeScanIntervalMs = 10000;

// This is a helper function to mock the behavior of ScanUtils::Scan()
// when we expect a error code.
// |interface_index_ignored|, |request_random_mac_ignored|, |ssids_ignored|,
// |freqs_ignored|, |error_code| are mapped to existing parameters of ScanUtils::Scan().
// |mock_error_code| is a additional parameter used for specifying expected error code.
bool ReturnErrorCodeForScanRequest(
    int mock_error_code,
    uint32_t interface_index_ignored,
    bool request_random_mac_ignored,
    int scan_type,
    const std::vector<std::vector<uint8_t>>& ssids_ignored,
    const std::vector<uint32_t>& freqs_ignored,
    int* error_code) {
  *error_code = mock_error_code;
  // Returing false because this helper function is used for failure case.
  return false;
}

bool CaptureSchedScanIntervalSetting(
    uint32_t /* interface_index */,
    const SchedScanIntervalSetting&  interval_setting,
    int32_t /* rssi_threshold_2g */,
    int32_t /* rssi_threshold_5g */,
    int32_t /* rssi_threshold_6g */,
    const SchedScanReqFlags&  /* req_flags */,
    const  std::vector<std::vector<uint8_t>>& /* scan_ssids */,
    const std::vector<std::vector<uint8_t>>& /* match_ssids */,
    const  std::vector<uint32_t>& /* freqs */,
    int* /* error_code */,
    SchedScanIntervalSetting* out_interval_setting) {
  *out_interval_setting = interval_setting;
  return true;
}

bool CaptureSchedScanReqFlags(
    uint32_t /* interface_index */,
    const SchedScanIntervalSetting&  /* interval_setting */,
    int32_t /* rssi_threshold_2g */,
    int32_t /* rssi_threshold_5g */,
    int32_t /* rssi_threshold_6g */,
    const SchedScanReqFlags& req_flags,
    const  std::vector<std::vector<uint8_t>>& /* scan_ssids */,
    const std::vector<std::vector<uint8_t>>& /* match_ssids */,
    const  std::vector<uint32_t>& /* freqs */,
    int* /* error_code */,
    SchedScanReqFlags* out_req_flags) {
  *out_req_flags = req_flags;
  return true;
}
}  // namespace

class ScannerTest : public ::testing::Test {
 protected:
  unique_ptr<ScannerImpl> scanner_impl_;
  NiceMock<MockNetlinkManager> netlink_manager_;
  NiceMock<MockNetlinkUtils> netlink_utils_{&netlink_manager_};
  NiceMock<MockScanUtils> scan_utils_{&netlink_manager_};
  NiceMock<MockInterfaceTool> if_tool_;
  NiceMock<MockClientInterfaceImpl> client_interface_impl_{
      &if_tool_, &netlink_utils_, &scan_utils_};
  ScanCapabilities scan_capabilities_;
  WiphyFeatures wiphy_features_;
};

TEST_F(ScannerTest, TestSingleScan) {
  EXPECT_CALL(scan_utils_,
              Scan(_, _, IWifiScannerImpl::SCAN_TYPE_DEFAULT, _, _, _)).
      WillOnce(Return(true));
  bool success = false;
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  EXPECT_TRUE(scanner_impl_->scan(SingleScanSettings(), &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestSingleScanForLowSpanScan) {
  EXPECT_CALL(scan_utils_,
              Scan(_, _, IWifiScannerImpl::SCAN_TYPE_LOW_SPAN, _, _, _)).
      WillOnce(Return(true));
  wiphy_features_.supports_low_span_oneshot_scan = true;
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  SingleScanSettings settings;
  settings.scan_type_ = IWifiScannerImpl::SCAN_TYPE_LOW_SPAN;
  bool success = false;
  EXPECT_TRUE(scanner_impl.scan(settings, &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestSingleScanForLowPowerScan) {
  EXPECT_CALL(scan_utils_,
              Scan(_, _, IWifiScannerImpl::SCAN_TYPE_LOW_POWER, _, _, _)).
      WillOnce(Return(true));
  wiphy_features_.supports_low_power_oneshot_scan = true;
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  SingleScanSettings settings;
  settings.scan_type_ = IWifiScannerImpl::SCAN_TYPE_LOW_POWER;
  bool success = false;
  EXPECT_TRUE(scanner_impl.scan(settings, &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestSingleScanForHighAccuracyScan) {
  EXPECT_CALL(scan_utils_,
              Scan(_, _, IWifiScannerImpl::SCAN_TYPE_HIGH_ACCURACY, _, _, _)).
      WillOnce(Return(true));
  wiphy_features_.supports_high_accuracy_oneshot_scan = true;
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  SingleScanSettings settings;
  settings.scan_type_ = IWifiScannerImpl::SCAN_TYPE_HIGH_ACCURACY;
  bool success = false;
  EXPECT_TRUE(scanner_impl.scan(settings, &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestSingleScanForLowSpanScanWithNoWiphySupport) {
  EXPECT_CALL(scan_utils_,
              Scan(_, _, IWifiScannerImpl::SCAN_TYPE_DEFAULT, _, _, _)).
      WillOnce(Return(true));
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  SingleScanSettings settings;
  settings.scan_type_ = IWifiScannerImpl::SCAN_TYPE_LOW_SPAN;
  bool success = false;
  EXPECT_TRUE(scanner_impl.scan(settings, &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestSingleScanForLowPowerScanWithNoWiphySupport) {
  EXPECT_CALL(scan_utils_,
              Scan(_, _, IWifiScannerImpl::SCAN_TYPE_DEFAULT, _, _, _)).
      WillOnce(Return(true));
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  SingleScanSettings settings;
  settings.scan_type_ = IWifiScannerImpl::SCAN_TYPE_LOW_POWER;
  bool success = false;
  EXPECT_TRUE(scanner_impl.scan(settings, &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestSingleScanForHighAccuracyScanWithNoWiphySupport) {
  EXPECT_CALL(scan_utils_,
              Scan(_, _, IWifiScannerImpl::SCAN_TYPE_DEFAULT, _, _, _)).
      WillOnce(Return(true));
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  SingleScanSettings settings;
  settings.scan_type_ = IWifiScannerImpl::SCAN_TYPE_HIGH_ACCURACY;
  bool success = false;
  EXPECT_TRUE(scanner_impl.scan(settings, &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestSingleScanFailure) {
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  EXPECT_CALL(
      scan_utils_,
      Scan(_, _, _, _, _, _)).
          WillOnce(Invoke(bind(
              ReturnErrorCodeForScanRequest, EBUSY,
              _1, _2, _3, _4, _5, _6)));

  bool success = false;
  EXPECT_TRUE(scanner_impl_->scan(SingleScanSettings(), &success).isOk());
  EXPECT_FALSE(success);
}

TEST_F(ScannerTest, TestProcessAbortsOnScanReturningNoDeviceErrorSeveralTimes) {
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  ON_CALL(
      scan_utils_,
      Scan(_, _, _, _, _, _)).
          WillByDefault(Invoke(bind(
              ReturnErrorCodeForScanRequest, ENODEV,
              _1, _2, _3, _4, _5, _6)));

  bool single_scan_failure;
  EXPECT_TRUE(scanner_impl_->scan(SingleScanSettings(), &single_scan_failure).isOk());
  EXPECT_FALSE(single_scan_failure);
  EXPECT_TRUE(scanner_impl_->scan(SingleScanSettings(), &single_scan_failure).isOk());
  EXPECT_FALSE(single_scan_failure);
  EXPECT_TRUE(scanner_impl_->scan(SingleScanSettings(), &single_scan_failure).isOk());
  EXPECT_FALSE(single_scan_failure);
  EXPECT_DEATH(scanner_impl_->scan(SingleScanSettings(), &single_scan_failure),
               "Driver is in a bad state*");
}

TEST_F(ScannerTest, TestAbortScan) {
  bool single_scan_success = false;
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  EXPECT_CALL(scan_utils_, Scan(_, _, _, _, _, _))
      .WillOnce(Return(true));
  EXPECT_TRUE(
      scanner_impl_->scan(SingleScanSettings(), &single_scan_success).isOk());
  EXPECT_TRUE(single_scan_success);

  EXPECT_CALL(scan_utils_, AbortScan(_));
  EXPECT_TRUE(scanner_impl_->abortScan().isOk());
}

TEST_F(ScannerTest, TestAbortScanNotIssuedIfNoOngoingScan) {
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  EXPECT_CALL(scan_utils_, AbortScan(_)).Times(0);
  EXPECT_TRUE(scanner_impl_->abortScan().isOk());
}

TEST_F(ScannerTest, TestGetScanResults) {
  vector<NativeScanResult> scan_results;
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  EXPECT_CALL(scan_utils_, GetScanResult(_, _)).WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl_->getScanResults(&scan_results).isOk());
}

TEST_F(ScannerTest, TestStartPnoScanViaNetlink) {
  bool success = false;
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _,  _, _, _, _, _)).
          WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl.startPnoScan(PnoSettings(), &success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestStartPnoScanViaNetlinkWithLowPowerScanWiphySupport) {
  bool success = false;
  wiphy_features_.supports_low_power_oneshot_scan = true;
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);
  SchedScanReqFlags req_flags = {};
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _, _, _, _, _, _)).
          WillOnce(Invoke(bind(
              CaptureSchedScanReqFlags,
              _1, _2, _3, _4, _5, _6, _7, _8, _9, _10, &req_flags)));
  EXPECT_TRUE(scanner_impl.startPnoScan(PnoSettings(), &success).isOk());
  EXPECT_TRUE(success);
  EXPECT_TRUE(req_flags.request_low_power);
}

TEST_F(ScannerTest, TestStopPnoScanViaNetlink) {
  bool success = false;
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  // StopScheduledScan() will be called no matter if there is an ongoing
  // scheduled scan or not. This is for making the system more robust.
  EXPECT_CALL(scan_utils_, StopScheduledScan(_)).WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl_->stopPnoScan(&success).isOk());
  EXPECT_TRUE(success);
}

TEST_F(ScannerTest, TestGenerateScanPlansIfDeviceSupports) {
  ScanCapabilities scan_capabilities_scan_plan_supported(
      0 /* max_num_scan_ssids */,
      0 /* max_num_sched_scan_ssids */,
      0 /* max_match_sets */,
      // Parameters above are not related to this test.
      2 /* 1 plan for finite repeated scan and 1 plan for ininfite scan loop */,
      kFakeScanIntervalMs * PnoSettings::kSlowScanIntervalMultiplier / 1000,
      PnoSettings::kFastScanIterations);
  ScannerImpl scanner(
      kFakeInterfaceIndex,
      scan_capabilities_scan_plan_supported, wiphy_features_,
      &client_interface_impl_,
      &scan_utils_);

  PnoSettings pno_settings;
  pno_settings.interval_ms_ = kFakeScanIntervalMs;

  SchedScanIntervalSetting interval_setting;
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _, _, _, _, _, _)).
              WillOnce(Invoke(bind(
                  CaptureSchedScanIntervalSetting,
                  _1, _2, _3, _4, _5, _6, _7, _8, _9, _10, &interval_setting)));

  bool success_ignored = 0;
  EXPECT_TRUE(scanner.startPnoScan(pno_settings, &success_ignored).isOk());
  /* 1 plan for finite repeated scan */
  EXPECT_EQ(1U, interval_setting.plans.size());
  EXPECT_EQ(kFakeScanIntervalMs * PnoSettings::kSlowScanIntervalMultiplier,
            interval_setting.final_interval_ms);
}

TEST_F(ScannerTest, TestGenerateSingleIntervalIfDeviceDoesNotSupportScanPlan) {
  ScanCapabilities scan_capabilities_no_scan_plan_support(
      0 /* max_num_scan_ssids */,
      0 /* max_num_sched_scan_ssids */,
      0 /* max_match_sets */,
      // Parameters above are not related to this test.
      0 /* max_num_scan_plans */,
      0 /* max_scan_plan_interval */,
      0 /* max_scan_plan_iterations */);
  ScannerImpl scanner(
      kFakeInterfaceIndex,
      scan_capabilities_no_scan_plan_support, wiphy_features_,
      &client_interface_impl_,
      &scan_utils_);
  PnoSettings pno_settings;
  pno_settings.interval_ms_ = kFakeScanIntervalMs;

  SchedScanIntervalSetting interval_setting;
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _, _, _, _, _, _)).
              WillOnce(Invoke(bind(
                  CaptureSchedScanIntervalSetting,
                  _1, _2, _3, _4, _5, _6, _7, _8, _9, _10,
                  &interval_setting)));

  bool success_ignored = 0;
  EXPECT_TRUE(scanner.startPnoScan(pno_settings, &success_ignored).isOk());

  EXPECT_EQ(0U, interval_setting.plans.size());
  EXPECT_EQ(kFakeScanIntervalMs, interval_setting.final_interval_ms);
}

TEST_F(ScannerTest, TestGetScanResultsOnInvalidatedScannerImpl) {
  vector<NativeScanResult> scan_results;
  scanner_impl_.reset(new ScannerImpl(kFakeInterfaceIndex,
                                      scan_capabilities_, wiphy_features_,
                                      &client_interface_impl_,
                                      &scan_utils_));
  scanner_impl_->Invalidate();
  EXPECT_CALL(scan_utils_, GetScanResult(_, _))
      .Times(0)
      .WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl_->getScanResults(&scan_results).isOk());
}

// Verify that pno scanning starts with no errors given a non-empty frequency list.
TEST_F(ScannerTest, TestStartPnoScanWithNonEmptyFrequencyList) {
  bool success = false;
  ScanCapabilities scan_capabilities_test_frequencies(
      1 /* max_num_scan_ssids */,
      1 /* max_num_sched_scan_ssids */,
      1 /* max_match_sets */,
      0,
      kFakeScanIntervalMs * PnoSettings::kSlowScanIntervalMultiplier / 1000,
      PnoSettings::kFastScanIterations);
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_test_frequencies,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);

  PnoSettings pno_settings;
  PnoNetwork network;
  network.is_hidden_ = false;
  network.frequencies_.push_back(2412);
  pno_settings.pno_networks_.push_back(network);

  std::vector<uint32_t> expected_freqs;
  expected_freqs.push_back(2412);
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _, _, _, _, Eq(expected_freqs), _)).
          WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl.startPnoScan(pno_settings, &success).isOk());
  EXPECT_TRUE(success);
}

// Verify that a unique set of frequencies is passed in for scanning when the input
// contains duplicate frequencies.
TEST_F(ScannerTest, TestStartPnoScanWithFrequencyListNoDuplicates) {
  bool success = false;
  ScanCapabilities scan_capabilities_test_frequencies(
      1 /* max_num_scan_ssids */,
      1 /* max_num_sched_scan_ssids */,
      2 /* max_match_sets */,
      0,
      kFakeScanIntervalMs * PnoSettings::kSlowScanIntervalMultiplier / 1000,
      PnoSettings::kFastScanIterations);
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_test_frequencies,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);

  PnoSettings pno_settings;
  PnoNetwork network;
  PnoNetwork network2;
  network.is_hidden_ = false;
  network.frequencies_.push_back(2412);
  network.frequencies_.push_back(2437);
  network2.is_hidden_ = false;
  network2.frequencies_.push_back(2437);
  network2.frequencies_.push_back(2462);
  pno_settings.pno_networks_.push_back(network);
  pno_settings.pno_networks_.push_back(network2);

  std::vector<uint32_t> expected_freqs;
  expected_freqs.push_back(2412);
  expected_freqs.push_back(2437);
  expected_freqs.push_back(2462);
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _, _, _, _, Eq(expected_freqs), _)).
          WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl.startPnoScan(pno_settings, &success).isOk());
  EXPECT_TRUE(success);
}

// Verify that if more than 30% of networks don't have frequency data then a list of default
// frequencies will be added to the scan.
TEST_F(ScannerTest, TestStartPnoScanWithFrequencyListFallbackMechanism) {
  bool success = false;
  ScanCapabilities scan_capabilities_test_frequencies(
      1 /* max_num_scan_ssids */,
      1 /* max_num_sched_scan_ssids */,
      2 /* max_match_sets */,
      0,
      kFakeScanIntervalMs * PnoSettings::kSlowScanIntervalMultiplier / 1000,
      PnoSettings::kFastScanIterations);
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_test_frequencies,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);

  PnoSettings pno_settings;
  PnoNetwork network;
  PnoNetwork network2;
  network.is_hidden_ = false;
  network.frequencies_.push_back(5640);
  network2.is_hidden_ = false;
  pno_settings.pno_networks_.push_back(network);
  pno_settings.pno_networks_.push_back(network2);

  std::set<int32_t> default_frequencies = {2412, 2417, 2422, 2427, 2432, 2437, 2447, 2452, 2457,
      2462, 5180, 5200, 5220, 5240, 5745, 5765, 5785, 5805};
  default_frequencies.insert(5640); // add frequency from saved network
  vector<uint32_t> expected_frequencies(default_frequencies.begin(), default_frequencies.end());
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _, _, _, _, Eq(expected_frequencies), _)).
          WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl.startPnoScan(pno_settings, &success).isOk());
  EXPECT_TRUE(success);
}

// Verify that when there is no frequency data all pno networks, an empty list is passed into
// StartScheduledScan in order to scan all frequencies.
TEST_F(ScannerTest, TestStartPnoScanEmptyList) {
  bool success = false;
  ScanCapabilities scan_capabilities_test_frequencies(
      1 /* max_num_scan_ssids */,
      1 /* max_num_sched_scan_ssids */,
      2 /* max_match_sets */,
      0,
      kFakeScanIntervalMs * PnoSettings::kSlowScanIntervalMultiplier / 1000,
      PnoSettings::kFastScanIterations);
  ScannerImpl scanner_impl(kFakeInterfaceIndex, scan_capabilities_test_frequencies,
                           wiphy_features_, &client_interface_impl_,
                           &scan_utils_);

  PnoSettings pno_settings;
  PnoNetwork network;
  PnoNetwork network2;
  network.is_hidden_ = false;
  network2.is_hidden_ = false;
  pno_settings.pno_networks_.push_back(network);
  pno_settings.pno_networks_.push_back(network2);
  EXPECT_CALL(
      scan_utils_,
      StartScheduledScan(_, _, _, _, _, _, _, _, Eq(vector<uint32_t>{}), _)).
          WillOnce(Return(true));
  EXPECT_TRUE(scanner_impl.startPnoScan(pno_settings, &success).isOk());
  EXPECT_TRUE(success);
}

}  // namespace wificond
}  // namespace android