rainmeter-studio/Library/Measure.cpp

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/*
Copyright (C) 2000 Kimmo Pekkola
This program is free software; you can redistribute it and/or
modify it under the terms of the GNU General Public License
as published by the Free Software Foundation; either version 2
of the License, or (at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program; if not, write to the Free Software
Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
*/
#pragma warning(disable: 4996)
#include "StdAfx.h"
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#include "Measure.h"
#include "MeasureCPU.h"
#include "MeasureMemory.h"
#include "MeasurePhysicalMemory.h"
#include "MeasureVirtualMemory.h"
#include "MeasureNetIn.h"
#include "MeasureNetOut.h"
#include "MeasureNetTotal.h"
#include "MeasureDiskSpace.h"
#include "MeasureUptime.h"
#include "MeasurePlugin.h"
#include "MeasureRegistry.h"
#include "MeasureTime.h"
#include "MeasureCalc.h"
#include "MeasureScript.h"
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#include "Rainmeter.h"
#include "Error.h"
#include "Litestep.h"
const int MEDIAN_SIZE = 7;
extern CRainmeter* Rainmeter;
/*
** CMeasure
**
** The constructor
**
*/
CMeasure::CMeasure(CMeterWindow* meterWindow) : m_MeterWindow(meterWindow)
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{
m_Invert = false;
m_LogMaxValue = false;
m_MinValue = 0.0;
m_MaxValue = 1.0;
m_Value = 0.0;
m_IfAboveValue = 0.0;
m_IfBelowValue = 0.0;
m_IfEqualValue = 0.0;
m_IfAboveCommited = false;
m_IfBelowCommited = false;
m_IfEqualCommited = false;
m_Disabled = false;
m_UpdateDivider = 1;
m_UpdateCounter = 1;
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m_MedianPos = 0;
m_AveragePos = 0;
m_AverageSize = 0;
m_DynamicVariables = false;
m_Initialized = false;
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}
/*
** ~CMeasure
**
** The destructor
**
*/
CMeasure::~CMeasure()
{
}
/*
** Initialize
**
** Initializes the measure.
**
*/
void CMeasure::Initialize()
{
m_Initialized = true;
}
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/*
** ReadConfig
**
** Reads the common configs for all Measures. The inherited classes
** must call the base implementation if they overwrite this method.
**
*/
void CMeasure::ReadConfig(CConfigParser& parser, const WCHAR* section)
{
// Clear substitutes to prevent from being added more than once.
if (!m_Substitute.empty())
{
m_Substitute.clear();
}
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m_Invert = 0!=parser.ReadInt(section, L"InvertMeasure", 0);
if (!m_Initialized)
{
m_Disabled = 0!=parser.ReadInt(section, L"Disabled", 0);
}
else
{
const std::wstring& result = parser.ReadString(section, L"Disabled", L"0");
if (parser.GetLastReplaced())
{
m_Disabled = 0!=(int)parser.ParseDouble(result, 0.0, true);
}
}
UINT updateDivider = parser.ReadInt(section, L"UpdateDivider", 1);
if (updateDivider != m_UpdateDivider)
{
m_UpdateCounter = m_UpdateDivider = updateDivider;
}
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m_MinValue = parser.ReadFloat(section, L"MinValue", m_MinValue);
m_MaxValue = parser.ReadFloat(section, L"MaxValue", m_MaxValue);
// The ifabove/ifbelow define actions that are ran when the value goes above/below the given number.
m_IfAboveValue = parser.ReadFloat(section, L"IfAboveValue", 0.0);
m_IfAboveAction = parser.ReadString(section, L"IfAboveAction", L"", false);
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m_IfBelowValue = parser.ReadFloat(section, L"IfBelowValue", 0.0);
m_IfBelowAction = parser.ReadString(section, L"IfBelowAction", L"", false);
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m_IfEqualValue = parser.ReadFloat(section, L"IfEqualValue", 0.0);
m_IfEqualAction = parser.ReadString(section, L"IfEqualAction", L"", false);
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m_AverageSize = parser.ReadInt(section, L"AverageSize", 0);
m_DynamicVariables = 0!=parser.ReadInt(section, L"DynamicVariables", 0);
std::wstring subs = parser.ReadString(section, L"Substitute", L"");
if (!subs.empty() &&
(subs[0] != L'\"' || subs[subs.length() - 1] != L'\'') &&
(subs[0] != L'\'' || subs[subs.length() - 1] != L'\"'))
{
// Add quotes since they are removed by the GetProfileString
subs = L"\"" + subs + L"\"";
}
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if (!ParseSubstitute(subs))
{
DebugLog(L"Incorrect substitute string: %s", subs.c_str());
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}
std::wstring group = parser.ReadString(section, L"Group", L"");
InitializeGroup(group);
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}
/*
** CheckSubstitute
**
** Substitutes part of the text
*/
const WCHAR* CMeasure::CheckSubstitute(const WCHAR* buffer)
{
static std::wstring str;
if (!m_Substitute.empty())
{
str = buffer;
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for (size_t i = 0; i < m_Substitute.size(); i += 2)
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{
if (str.empty() && m_Substitute[i].empty())
{
// Empty result and empty substitute -> use second
str = m_Substitute[i + 1];
}
else if (m_Substitute[i].size() > 0)
{
size_t start = 0;
size_t pos = std::wstring::npos;
do
{
pos = str.find(m_Substitute[i], start);
if (pos != std::wstring::npos)
{
str.replace(str.begin() + pos, str.begin() + pos + m_Substitute[i].size(), m_Substitute[i + 1]);
start = pos + m_Substitute[i + 1].size();
}
} while(pos != std::wstring::npos);
}
}
return str.c_str();
}
else
{
return buffer;
}
}
/*
** ParseSubstitute
**
** Reads the buffer for "Name":"Value"-pairs separated with comma and
** fills the map with the parsed data.
*/
bool CMeasure::ParseSubstitute(std::wstring buffer)
{
if (buffer.empty()) return true;
while (!buffer.empty())
{
std::wstring word1 = ExtractWord(buffer);
std::wstring sep = ExtractWord(buffer);
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if (sep != L":") return false;
std::wstring word2 = ExtractWord(buffer);
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if (word1 != word2)
{
m_Substitute.push_back(word1);
m_Substitute.push_back(word2);
}
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sep = ExtractWord(buffer);
if (!sep.empty() && sep != L",") return false;
}
return true;
}
/*
** ExtractWord
**
** Returns the first word from the buffer. The word can be inside quotes.
** If not, the separators are ' ', '\t', ',' and ':'. Whitespaces are removed
** and buffer _will_ be modified.
*/
std::wstring CMeasure::ExtractWord(std::wstring& buffer)
{
std::wstring::size_type end = 0;
std::wstring::size_type pos = 0;
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std::wstring ret;
if (buffer.empty()) return ret;
// Remove whitespaces
std::wstring::size_type notwhite = buffer.find_first_not_of(L" \t\n");
buffer.erase(0, notwhite);
if (buffer[0] == L'\"' || buffer[0] == L'\'')
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{
WCHAR quote = buffer[0];
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end = 1; // Skip the '"'
// Quotes around the word
while (buffer[end] != quote && end < buffer.size()) ++end;
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if (buffer[end] == quote)
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{
ret = buffer.substr(1, end - 1);
buffer.erase(0, end + 1);
}
else
{
// End of string reached
ret = buffer.substr(end);
buffer.erase(0, end);
}
}
else
{
end = 0;
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while ((buffer[end] != L',') && (buffer[end] != L':') && (buffer[end] != L' ') && (buffer[end] != L'\t') && end < buffer.size()) ++end;
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if (end == buffer.size())
{
// End of line reached
ret = buffer;
buffer.erase(0, end);
}
else
{
ret = buffer.substr(0, end + 1); // The separator is also returned!
buffer.erase(0, end + 1);
}
}
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return ret;
}
/*
** PreUpdate
**
** The base implementation of the update method. This includes the code
** that is common for all measures. This is called every time the measure
** is updated. The inherited classes must call the base implementation if
** they overwrite this method. If this method returns false, the update
** needs not to be done.
**
*/
bool CMeasure::PreUpdate()
{
if (IsDisabled())
{
m_Value = 0.0; // Disable measures return 0 as value
return false;
}
// Only update the counter if the divider
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++m_UpdateCounter;
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if (m_UpdateCounter < m_UpdateDivider) return false;
m_UpdateCounter = 0;
// If we're logging the maximum value of the measure, check if
// the new value is greater than the old one, and update if necessary.
if(m_LogMaxValue)
{
if (m_MedianMaxValues.empty())
{
m_MedianMaxValues.resize(MEDIAN_SIZE, 0);
m_MedianMinValues.resize(MEDIAN_SIZE, 0);
}
m_MedianMaxValues[m_MedianPos] = m_Value;
m_MedianMinValues[m_MedianPos] = m_Value;
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++m_MedianPos;
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m_MedianPos %= MEDIAN_SIZE;
std::vector<double> medianArray;
medianArray = m_MedianMaxValues;
std::sort(medianArray.begin(), medianArray.end());
m_MaxValue = max(m_MaxValue, medianArray[MEDIAN_SIZE / 2]);
medianArray = m_MedianMinValues;
std::sort(medianArray.begin(), medianArray.end());
m_MinValue = min(m_MinValue, medianArray[MEDIAN_SIZE / 2]);
}
if (m_MeterWindow)
{
// Check the IfEqualValue
if(!m_IfEqualAction.empty())
{
if((int)m_Value == (int)m_IfEqualValue)
{
if(!m_IfEqualCommited)
{
Rainmeter->ExecuteCommand(m_IfEqualAction.c_str(), m_MeterWindow);
m_IfEqualCommited = true;
}
}
else
{
m_IfEqualCommited = false;
}
}
// Check the IfAboveValue
if(!m_IfAboveAction.empty())
{
if(m_Value > m_IfAboveValue)
{
if(!m_IfAboveCommited)
{
Rainmeter->ExecuteCommand(m_IfAboveAction.c_str(), m_MeterWindow);
m_IfAboveCommited = true;
}
}
else
{
m_IfAboveCommited = false;
}
}
// Check the IfBelowValue
if(!m_IfBelowAction.empty())
{
if(m_Value < m_IfBelowValue)
{
if(!m_IfBelowCommited)
{
Rainmeter->ExecuteCommand(m_IfBelowAction.c_str(), m_MeterWindow);
m_IfBelowCommited = true;
}
}
else
{
m_IfBelowCommited = false;
}
}
}
return true;
}
/*
** PostUpdate
**
** Does post measuring things to the value. All measures must call this
** after they have set the m_Value.
**
*/
bool CMeasure::PostUpdate()
{
if (m_AverageSize > 0)
{
if (m_AverageValues.size() == 0)
{
m_AverageValues.resize(m_AverageSize, m_Value);
}
m_AverageValues[m_AveragePos] = m_Value;
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++m_AveragePos;
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m_AveragePos %= m_AverageValues.size();
// Calculate the average value
m_Value = 0;
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for (size_t i = 0; i < m_AverageValues.size(); ++i)
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{
m_Value += m_AverageValues[i];
}
m_Value = m_Value / (double)m_AverageValues.size();
}
return true;
}
/*
** GetValue
**
** Returns the value of the measure.
**
*/
double CMeasure::GetValue()
{
// Invert if so requested
if (m_Invert)
{
return m_MaxValue - m_Value + m_MinValue;
}
return m_Value;
}
/*
** GetRelativeValue
**
** Returns the relative value of the measure (0.0 - 1.0).
**
*/
double CMeasure::GetRelativeValue()
{
double range = GetValueRange();
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if (range != 0.0)
{
double value = GetValue();
value = min(m_MaxValue, value);
value = max(m_MinValue, value);
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value -= m_MinValue;
return value / range;
}
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return 1.0;
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}
/*
** GetValueRange
**
** Returns the value range.
**
*/
double CMeasure::GetValueRange()
{
return m_MaxValue - m_MinValue;
}
/*
** GetStringValue
**
** This method returns the value as text string. The actual value is
** get with GetValue() so we don't have to worry about m_Invert.
**
** autoScale If true, scale the value automatically to some sensible range.
** scale The scale to use if autoScale is false.
** decimals Number of decimals used in the value. If -1, get rid of ".00000" for dynamic variables.
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** percentual Return the value as % from the maximum value.
*/
const WCHAR* CMeasure::GetStringValue(bool autoScale, double scale, int decimals, bool percentual)
{
static WCHAR buffer[MAX_LINE_LENGTH];
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WCHAR format[32];
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if(percentual)
{
double val = 100.0 * GetRelativeValue();
if (decimals == 0)
{
swprintf(buffer, L"%i", (UINT)val);
}
else
{
swprintf(format, L"%%.%if", decimals);
swprintf(buffer, format, val);
}
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}
else if(autoScale)
{
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GetScaledValue(decimals, GetValue(), buffer);
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}
else
{
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double val = GetValue() / scale;
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if(decimals == 0)
{
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val += (val >= 0) ? 0.5 : -0.5;
swprintf(buffer, L"%lli", (LONGLONG)val);
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}
else if (decimals == -1)
{
swprintf(buffer, L"%.5f", val);
size_t len = wcslen(buffer);
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if (len >= 6 && wcscmp(&buffer[len - 6], L".00000") == 0)
{
buffer[len - 6] = L'\0';
}
}
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else
{
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swprintf(format, L"%%.%if", decimals);
swprintf(buffer, format, val);
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}
}
return CheckSubstitute(buffer);
}
void CMeasure::GetScaledValue(int decimals, double theValue, WCHAR* buffer)
{
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WCHAR format[32];
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double value = 0;
if(decimals == 0)
{
wcscpy(format, L"%.0f");
}
else
{
swprintf(format, L"%%.%if", decimals);
}
if(theValue > 1000.0 * 1000.0 * 1000.0 * 1000.0)
{
wcscat(format, L" T");
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value = theValue / (1024.0 * 1024.0 * 1024.0 * 1024.0);
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}
else if(theValue > 1000.0 * 1000.0 * 1000.0)
{
wcscat(format, L" G");
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value = theValue / (1024.0 * 1024.0 * 1024.0);
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}
else if(theValue > 1000.0 * 1000.0)
{
wcscat(format, L" M");
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value = theValue / (1024.0 * 1024.0);
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}
else if(theValue > 1000.0)
{
wcscat(format, L" k");
value = theValue / 1024.0;
}
else
{
wcscat(format, L" ");
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value = theValue;
}
swprintf(buffer, format, value);
}
/*
** GetStats
**
** Returns the stats as string. The stats are shown in the About dialog.
*/
const WCHAR* CMeasure::GetStats()
{
static std::wstring value;
value = GetStringValue(true, 1, 1, false);
return value.c_str();
}
/*
** Create
**
** Creates the given measure. This is the factory method for the measures.
** If new measures are implemented this method needs to be updated.
**
*/
CMeasure* CMeasure::Create(const WCHAR* measure, CMeterWindow* meterWindow)
{
// Comparson is caseinsensitive
if(_wcsicmp(L"", measure) == 0)
{
return NULL;
}
else if(_wcsicmp(L"CPU", measure) == 0)
{
return new CMeasureCPU(meterWindow);
}
else if(_wcsicmp(L"Memory", measure) == 0)
{
return new CMeasureMemory(meterWindow);
}
else if(_wcsicmp(L"NetIn", measure) == 0)
{
return new CMeasureNetIn(meterWindow);
}
else if(_wcsicmp(L"NetOut", measure) == 0)
{
return new CMeasureNetOut(meterWindow);
}
else if(_wcsicmp(L"NetTotal", measure) == 0)
{
return new CMeasureNetTotal(meterWindow);
}
else if(_wcsicmp(L"PhysicalMemory", measure) == 0)
{
return new CMeasurePhysicalMemory(meterWindow);
}
else if(_wcsicmp(L"SwapMemory", measure) == 0)
{
return new CMeasureVirtualMemory(meterWindow);
}
else if(_wcsicmp(L"FreeDiskSpace", measure) == 0)
{
return new CMeasureDiskSpace(meterWindow);
}
else if(_wcsicmp(L"Uptime", measure) == 0)
{
return new CMeasureUptime(meterWindow);
}
else if(_wcsicmp(L"Time", measure) == 0)
{
return new CMeasureTime(meterWindow);
}
else if(_wcsicmp(L"Plugin", measure) == 0)
{
return new CMeasurePlugin(meterWindow);
}
else if(_wcsicmp(L"Registry", measure) == 0)
{
return new CMeasureRegistry(meterWindow);
}
else if(_wcsicmp(L"Calc", measure) == 0)
{
return new CMeasureCalc(meterWindow);
}
else if(_wcsicmp(L"script", measure) == 0)
{
return new CMeasureScript(meterWindow);
}
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// Error
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std::wstring error = L"Measure=";
error += measure;
error += L" is not valid.";
throw CError(error, __LINE__, __FILE__);
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return NULL;
}
/*
** ExecuteBang
**
** Executes a custom bang
*/
void CMeasure::ExecuteBang(const WCHAR* args)
{
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DebugLog(L"[%s] doesn't support this bang: %s", m_Name.c_str(), args);
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}