Files
reHDD/src/drive.cpp
T

319 lines
8.5 KiB
C++

/**
* @file drive.cpp
* @brief represent physical drive
* @author hendrik schutter
* @date 01.05.2020
*/
#include "../include/reHDD.h"
using namespace std;
// Copy constructor
Drive::Drive(const Drive &other)
: state(other.state.load()),
connectionType(other.connectionType.load()),
sShredSpeed(other.sShredSpeed.load()),
bWasShredded(other.bWasShredded),
bWasShredStarted(other.bWasShredStarted),
bWasChecked(other.bWasChecked),
bWasDeleted(other.bWasDeleted),
bIsOffline(other.bIsOffline),
u32DriveChecksumAfterShredding(other.u32DriveChecksumAfterShredding),
sPath(other.sPath),
u32Timestamp(other.u32Timestamp),
d32TaskPercentage(other.d32TaskPercentage),
u32TimestampTaskStart(other.u32TimestampTaskStart),
u32TaskDuration(other.u32TaskDuration),
sSmartData(other.sSmartData)
{
}
// Copy assignment operator
Drive &Drive::operator=(const Drive &other)
{
if (this != &other)
{
state = other.state.load();
connectionType = other.connectionType.load();
sShredSpeed = other.sShredSpeed.load();
bWasShredded = other.bWasShredded;
bWasShredStarted = other.bWasShredStarted;
bWasChecked = other.bWasChecked;
bWasDeleted = other.bWasDeleted;
bIsOffline = other.bIsOffline;
u32DriveChecksumAfterShredding = other.u32DriveChecksumAfterShredding;
sPath = other.sPath;
u32Timestamp = other.u32Timestamp;
d32TaskPercentage = other.d32TaskPercentage;
u32TimestampTaskStart = other.u32TimestampTaskStart;
u32TaskDuration = other.u32TaskDuration;
sSmartData = other.sSmartData;
}
return *this;
}
// Move constructor
Drive::Drive(Drive &&other) noexcept
: state(other.state.load()),
connectionType(other.connectionType.load()),
sShredSpeed(other.sShredSpeed.load()),
bWasShredded(other.bWasShredded),
bWasShredStarted(other.bWasShredStarted),
bWasChecked(other.bWasChecked),
bWasDeleted(other.bWasDeleted),
bIsOffline(other.bIsOffline),
u32DriveChecksumAfterShredding(other.u32DriveChecksumAfterShredding),
sPath(std::move(other.sPath)),
u32Timestamp(other.u32Timestamp),
d32TaskPercentage(other.d32TaskPercentage),
u32TimestampTaskStart(other.u32TimestampTaskStart),
u32TaskDuration(other.u32TaskDuration),
sSmartData(std::move(other.sSmartData))
{
}
// Move assignment operator
Drive &Drive::operator=(Drive &&other) noexcept
{
if (this != &other)
{
state = other.state.load();
connectionType = other.connectionType.load();
sShredSpeed = other.sShredSpeed.load();
bWasShredded = other.bWasShredded;
bWasShredStarted = other.bWasShredStarted;
bWasChecked = other.bWasChecked;
bWasDeleted = other.bWasDeleted;
bIsOffline = other.bIsOffline;
u32DriveChecksumAfterShredding = other.u32DriveChecksumAfterShredding;
sPath = std::move(other.sPath);
u32Timestamp = other.u32Timestamp;
d32TaskPercentage = other.d32TaskPercentage;
u32TimestampTaskStart = other.u32TimestampTaskStart;
u32TaskDuration = other.u32TaskDuration;
sSmartData = std::move(other.sSmartData);
}
return *this;
}
string Drive::getPath(void)
{
return sPath;
}
string Drive::getModelFamily(void)
{
return sSmartData.sModelFamily;
}
string Drive::getModelName(void)
{
return sSmartData.sModelName;
}
string Drive::getSerial(void)
{
return sSmartData.sSerial;
}
uint64_t Drive::getCapacity(void)
{
return sSmartData.u64Capacity;
}
uint32_t Drive::getErrorCount(void)
{
return sSmartData.u32ErrorCount;
}
uint32_t Drive::getPowerOnHours(void)
{
return sSmartData.u32PowerOnHours;
}
uint32_t Drive::getPowerCycles(void)
{
return sSmartData.u32PowerCycles;
}
uint32_t Drive::getTemperature(void)
{
return sSmartData.u32Temperature;
}
uint32_t Drive::getReallocatedSectors(void)
{
return sSmartData.u32ReallocatedSectors;
}
uint32_t Drive::getPendingSectors(void)
{
return sSmartData.u32PendingSectors;
}
uint32_t Drive::getUncorrectableSectors(void)
{
return sSmartData.u32UncorrectableSectors;
}
string Drive::sCapacityToText()
{
char acBuffer[16];
double dSize = (double)getCapacity();
uint16_t u16UnitIndex = 0;
const char *units[] = {"B", "kB", "MB", "GB", "TB", "PB", "EB", "ZB", "YB"};
while (dSize >= 1000) // using the marketing capacity
{
dSize /= 1000;
u16UnitIndex++;
}
if (u16UnitIndex >= 9)
{
u16UnitIndex = 8;
}
int precision = (u16UnitIndex >= 3) ? (u16UnitIndex - 3) : 0;
sprintf(acBuffer, "%.*f %s", precision, dSize, units[u16UnitIndex]);
return acBuffer;
}
string Drive::sErrorCountToText()
{
return to_string(getErrorCount());
}
string Drive::sPowerOnHoursToText()
{
double dDays = 0U;
double dYears = 0U;
uint32_t u32Hours = getPowerOnHours();
stringstream streamDays;
stringstream streamYears;
dDays = (double)((double)u32Hours / (double)24U);
dYears = (double)((double)u32Hours / (double)8760U);
streamDays << fixed << setprecision(0) << dDays;
streamYears << fixed << setprecision(1) << dYears;
string sRet = to_string(getPowerOnHours()) + " hours or " + streamDays.str() + " days or " + streamYears.str() + " years";
return sRet;
}
string Drive::sPowerCyclesToText()
{
return to_string(getPowerCycles());
}
string Drive::sTemperatureToText()
{
return to_string(getTemperature()) + " C";
}
void Drive::setTaskPercentage(double d32TaskPercentage)
{
if (d32TaskPercentage <= 100)
{
this->d32TaskPercentage = d32TaskPercentage;
this->setTimestamp(); // set timestamp for this progress for detecting a frozen drive
}
}
double Drive::getTaskPercentage(void)
{
return this->d32TaskPercentage;
}
/**
* \brief set S.M.A.R.T. values in model
* \param string modelFamily
* \param string modelName
* \param string serial
* \param uint64_t capacity
* \param uint32_t errorCount
* \param uint32_t powerOnHours
* \param uint32_t powerCycle
* \param uint32_t temperature
* \return void
*/
void Drive::setDriveSMARTData(string modelFamily,
string modelName,
string serial,
uint64_t capacity,
uint32_t errorCount,
uint32_t powerOnHours,
uint32_t powerCycle,
uint32_t temperature,
uint32_t reallocatedSectors,
uint32_t pendingSectors,
uint32_t uncorrectableSectors)
{
this->sSmartData.sModelFamily = modelFamily;
this->sSmartData.sModelName = modelName;
this->sSmartData.sSerial = serial;
this->sSmartData.u64Capacity = capacity;
this->sSmartData.u32ErrorCount = errorCount;
this->sSmartData.u32PowerOnHours = powerOnHours;
this->sSmartData.u32PowerCycles = powerCycle;
this->sSmartData.u32Temperature = temperature;
this->sSmartData.u32ReallocatedSectors = reallocatedSectors;
this->sSmartData.u32PendingSectors = pendingSectors;
this->sSmartData.u32UncorrectableSectors = uncorrectableSectors;
}
void Drive::setTimestamp()
{
if (time(&this->u32Timestamp) == -1)
{
// handle error
this->u32Timestamp = 0U;
}
}
void Drive::setActionStartTimestamp()
{
if (time(&this->u32TimestampTaskStart) == -1)
{
// handle error
this->u32TimestampTaskStart = 0U;
}
}
time_t Drive::getActionStartTimestamp()
{
return this->u32TimestampTaskStart;
}
void Drive::calculateTaskDuration()
{
time_t u32localtime;
if (time(&u32localtime) == -1)
{
// handle error
u32localtime = 0U;
}
this->u32TaskDuration = u32localtime - this->u32TimestampTaskStart;
}
time_t Drive::getTaskDuration()
{
return this->u32TaskDuration;
}
void Drive::checkFrozenDrive(void)
{
time_t u32localtime;
time(&u32localtime);
if (time(&u32localtime) == -1)
{
// handle error
u32localtime = 0U;
}
if ((u32localtime - this->u32Timestamp) >= (FROZEN_TIMEOUT * 60) && (this->u32Timestamp > 0) && (this->getTaskPercentage() < 100.0))
{
Logger::logThis()->warning("Drive Frozen: " + this->getModelName() + " " + this->getSerial());
this->bWasDeleted = false;
this->bWasShredded = false;
this->state = Drive::TaskState::FROZEN;
}
}