// snfLOGmgr.cpp
//
// (C) Copyright 2006 - 2020 ARM Research Labs, LLC.
// See www.armresearch.com for the copyright terms.
//
// Log Manager implementations see snfLOGmgr.hpp for details.

#include "snfLOGmgr.hpp"
#include "../CodeDweller/threading.hpp"
#include "../CodeDweller/timing.hpp"
#include <unistd.h>
#include <sstream>
#include <iomanip>

namespace cd = codedweller;

//// snfScanData ///////////////////////////////////////////////////////////////

int snfScanData::IPScanCount() {                                                // Return the number of IPs.
    return MyIPCount;
}

IPScanRecord& snfScanData::newIPScanRecord() {                                  // Get the next free IP scan record.
    if(MaxIPsPerMessage <= MyIPCount) {                                         // Check that we have more records.
        throw NoFreeIPScanRecords();                                            // If we do not then throw!
    }                                                                           // If we do have more records then
    IPScanRecord& NewRecord = MyIPScanData[MyIPCount];                          // Pick the next available one,
    NewRecord.Ordinal = MyIPCount;                                              // set the ordinal value,
    ++MyIPCount;                                                                // increase our count, and
    return NewRecord;                                                           // return the one we picked.
}

IPScanRecord& snfScanData::IPScanData(int i) {                                  // Return the IP scan record i.
    if(MyIPCount <= i || 0 > i) {                                               // First check that i is in bounds.
        throw OutOfBounds();                                                    // if it is not then throw!
    }                                                                           // If the record for [i] is available
    return MyIPScanData[i];                                                     // return it.
}

void snfScanData::drillPastOrdinal(int O) {                                     // Sets Drill Down flag for IP record O.
    if(0 <= O && O < MaxIPsPerMessage) {                                        // If O is a useable Received ordinal
        DrillDownFlags[O] = true;                                               // then set the Drill Down Flag for O.
    }
}

bool snfScanData::isDrillDownSource(IPScanRecord& X) {                          // True if we drill through this source.
    if(
      (0UL != myCallerForcedSourceIP) ||                                        // If the source IP has been forced by
      (0UL != myHeaderDirectiveSourceIP)                                        // the caller or by a header directive
      ) return false;                                                           // then drilldowns are disabled.
                                                                                // Otherwise check for a drilldown flag.
    return DrillDownFlags[X.Ordinal];                                           // Presuming X is valid, return the flag.
}                                                                               // If X is not valid we may blow up!

IPScanRecord& snfScanData::SourceIPRecord(IPScanRecord& X) {                    // Sets the source IP record.
    SourceIPOrdinal = X.Ordinal;                                                // Here's the ordinal.
    SourceIPFoundFlag = true;                                                   // Here's the truth flag.
    return X;                                                                   // Return what was set.
}

IPScanRecord& snfScanData::SourceIPRecord() {                                   // Gets the source IP record.
    return IPScanData(SourceIPOrdinal);                                         // Return the IP record, or throw
}                                                                               // OutOfBounds.

bool snfScanData::FoundSourceIP() {                                             // True if the source IP record was set.
    return SourceIPFoundFlag;                                                   // Return what the flag says.
}

snfIPRange snfScanData::SourceIPRange(snfIPRange R) {                           // Establish the IP range.
    return (SourceIPRangeFlag = R);                                             // set and return the value w/ R.
}

snfIPRange snfScanData::SourceIPRange() {                                       // Gets the source IP detection range.
    return SourceIPRangeFlag;                                                   // Return what the flag says.
}

cd::IP4Address snfScanData::HeaderDirectiveSourceIP(cd::IP4Address A) {         // set Header directive source IP.
    if(0UL == myHeaderDirectiveSourceIP) myHeaderDirectiveSourceIP = A;         // If this value is not set, set it.
    return myHeaderDirectiveSourceIP;                                           // Return the value.
}

cd::IP4Address snfScanData::HeaderDirectiveSourceIP() {                         // get Header directive source IP.
    return myHeaderDirectiveSourceIP;                                           // Return the current value.
}

cd::IP4Address snfScanData::CallerForcedSourceIP(cd::IP4Address A) {            // set Caller forced source IP.
    if(0UL == myCallerForcedSourceIP) myCallerForcedSourceIP = A;               // If this value is not set, set it.
    return myCallerForcedSourceIP;                                              // Return the value.
}

cd::IP4Address snfScanData::CallerForcedSourceIP() {                            // get Caller forced source IP.
    return myCallerForcedSourceIP;                                              // Return the current value.
}

//// snfLOGmgr /////////////////////////////////////////////////////////////////

void snfLOGmgr::updateActiveUTC(std::string ActiveUTC) {                        // Update Active Rulebase UTC.
    cd::ScopeMutex Freeze(MyMutex);                                             // Protect the strings.
    ActiveRulebaseUTC = ActiveUTC;                                              // Update the active timestamp.
    NewerRulebaseIsAvailable = false;                                           // Update availability is now unknown.
}

void snfLOGmgr::updateAvailableUTC(std::string& AvailableRulebaseTimestamp) {   // Changes update avialability stamp.
    cd::ScopeMutex Freeze(MyMutex);                                             // Protect the strings.
    AvailableRulebaseUTC = AvailableRulebaseTimestamp;                          // Store the new timestamp.
    if(0 < AvailableRulebaseUTC.compare(ActiveRulebaseUTC)) {                   // If the available timestamp is newer
        NewerRulebaseIsAvailable = true;                                        // than the active then set the flag.
    } else {                                                                    // If it is not newer then
        NewerRulebaseIsAvailable = false;                                       // reset the flag.
    }
}

std::string snfLOGmgr::ActiveRulebaseTimestamp() {                              // Get active rulebase timestamp.
    cd::ScopeMutex Freeze(MyMutex);                                             // Protect the string.
    return ActiveRulebaseUTC;                                                   // Return it.
}

std::string snfLOGmgr::AvailableRulebaseTimestamp() {                           // Get available rulebase timestamp.
    cd::ScopeMutex Freeze(MyMutex);                                             // Protect the strings.
    return AvailableRulebaseUTC;                                                // Return the available timestamp.
}

bool snfLOGmgr::isUpdateAvailable() {                                           // True if update is available.
    return NewerRulebaseIsAvailable;                                            // Return the flag's value.
}

int snfLOGmgr::LatestRuleID() {                                                 // Query the latest rule id.
    return Status.LatestRuleID;                                                 // This simple value is atomic
}                                                                               // so we can read it without the mutex.

int snfLOGmgr::RunningTime() {                                                  // Get the time we've been alive.
    return (int) difftime(Timestamp(), StartupTime);
}

//// DiscLogger ////////////////////////////////////////////////////////////////

const cd::ThreadType DiscLogger::Type("DiscLogger");                            // The thread's type.

const cd::ThreadState DiscLogger::DiscLogger_Flush("Flushing");                 // Flushing state.
const cd::ThreadState DiscLogger::DiscLogger_Wait("Waiting");                   // Waiting state.

DiscLogger::DiscLogger(std::string N) :                                         // When it is time to start...
  Thread(DiscLogger::Type, N),                                                  // DiscLogger Type and Name.
  UseANotB(true),                                                               // Set all of the flags to their
  isDirty(false),                                                               // appropriate initial state
  isBad(false),                                                                 // then start the thread.
  isTimeToStop(false),
  inAppendMode(true),
  isEnabled(true) {
    run();
}

DiscLogger::~DiscLogger() {                                                     // When it is time to go away...
    isTimeToStop = true;                                                        // Set the stop flag.
    flush();                                                                    // Flush if we should.
    join();                                                                     // Wait for the thread to stop.
}

void DiscLogger::post(const std::string Input, const std::string NewPath) {     // Post Input to log.
    if(!isEnabled) return;                                                      // If we're not enabled, eat it.
    cd::ScopeMutex PostingNewDataNobodyMove(BufferControlMutex);                // Keep things static while posting.
    if(0 < NewPath.length()) { myPath = NewPath; }                              // Reset the path if provided.
    std::string& Buffer = PostingBuffer();                                      // Grab the posting buffer.
    if(!inAppendMode) Buffer.clear();                                           // If overwriting, clear the old.
    Buffer.append(Input);                                                       // Add the new data.
    isDirty = true;                                                             // We're dirty now.
}

// The DiscLogger flush() method is designed to lose data if it is unable to
// write the data to the file. The alternative would allow an unlimited amount
// of data to build up in the buffers and that would be bad.

void DiscLogger::flush() {                                                      // Flush right now!
    std::string FilePath;                                                       // Local copy of the path.
    cd::ScopeMutex FlushingNow(FlushMutex);                                     // We're flushing.
    if(isDirty) {                                                               // Nothing to do if not dirty.
        BufferControlMutex.lock();                                              // Lock the buffer controls.
        FlushingBuffer().clear();                                               // Clear the old flushing buffer.
        UseANotB = (!UseANotB);                                                 // Flip the buffers.
        isDirty = false;                                                        // We are not dirty anymore.
        std::string& Buffer = FlushingBuffer();                                 // Grab the new flushing buffer.
        FilePath = myPath;                                                      // Grab the current file path.
        BufferControlMutex.unlock();                                            // Unlock the buffer controls.
        try {                                                                   // Insulate against exceptions.
            std::ofstream File(                                                 // Open the file.
              FilePath.c_str(),                                                 // Use the path we have.
              (inAppendMode) ? (std::ios::app) : (std::ios::trunc)              // Append or Truncate appropriately.
            );
            File << Buffer;                                                     // Write the buffer.
            if(File.bad()) throw false;                                         // If someting went wrong, throw.
            File.close();                                                       // Close the file.
        }
        catch(...) {                                                            // If we had an exception then
            isBad = true;                                                       // make sure the bad bit is on and
            return;                                                             // we are done.
        }
        isBad = false;                                                          // If nothing went wrong we're good!
    }
}

void DiscLogger::myTask() {                                                     // Main thread task
    cd::Sleeper WaitASecond(1000);                                              // How to wait for 1 second.
    while(!isTimeToStop) {                                                      // Until it is time to stop:
        CurrentThreadState(DiscLogger_Wait);                                    // post our waiting and
        WaitASecond();                                                          // we wait a second, then
        CurrentThreadState(DiscLogger_Flush);                                   // post our activity and
        flush();                                                                // flush our data to disc
    }                                                                           // then do it again.
}

//// snfScanData ///////////////////////////////////////////////////////////////

snfScanData::snfScanData(int ScanHorizon) :                                     // How to create.
  ReadyToClear(true),                                                           // Make sure initial clear will happen.
  FilteredData(ScanHorizon, 0) {                                                // Allocate the Filtered Data buffer.
    clear();                                                                    // Start with no data.
}

snfScanData::~snfScanData() {                                                   // Cleans up lists etc.
  ReadyToClear = true;                                                          // Make sure the clear will happen.
  clear();                                                                      // Say we have no data.
}

void snfScanData::clear() {                                                     // Clear the data for the next message.

    if(!ReadyToClear) return;                                                   // Don't double clear.
    ReadyToClear = false;                                                       // No clearing now until logged.

    // Clear the IP scan data

    memset(MyIPScanData, 0, sizeof(MyIPScanData));                              // Clear the IP scan data and
    MyIPCount = 0;                                                              // the count of scanned IPs.
    memset(DrillDownFlags, 0, sizeof(DrillDownFlags));                          // Clear all DrillDown flags.

    SourceIPOrdinal = -1;                                                       // There is no source IP because it
    SourceIPFoundFlag = false;                                                  // has not yet been found.
    SourceIPRangeFlag = snfIPRange::Unknown;                                    // Range flag is not yet known.
    SourceIPEvaluation.clear();                                                 // No eval yet.

    myHeaderDirectiveSourceIP = 0UL;                                            // Header directive source is empty now.
    myCallerForcedSourceIP = 0UL;                                               // Caller forced source is empty now.

    // Clear basic message stats & id info.

    StartOfJobUTC = 0;                                                          // Clear the start of job clock.
    SetupTime = 0;                                                              // Time in ms spent setting up to scan.
    ScanName.clear();                                                           // Identifying name or message file name.

    /** The Timer ScanTime is explicitely NOT reset during clear() operations.
    *** Instead, the ScanTime Timer is controlled as a ScopeTimer() during the
    *** scan() operation exclusively.
    **/

    ScanSize = 0;                                                               // Scan size is zero.
    ScanDepth = 0;                                                              // Scan depth is zero.

    // Log entries and X- headers

    ClassicLogText.clear();                                                     // Classic log entry text if any.
    XMLLogText.clear();                                                         // XML log entry text if any.

    XHDRsText.clear();                                                          // XHeaders text if any.
    XHeaderInjectOn = false;                                                    // True if injecting headers is on.
    XHeaderFileOn = false;                                                      // True if creating .xhdr file is on.

    // Clear the GBUdb Event Tracking Flags

    GBUdbNormalTriggered = false;                                               // True if GBUdb indeterminate IP source.

    GBUdbWhiteTriggered = false;                                                // True if GBUdb found source IP white.
    GBUdbWhiteSymbolForced = false;                                             // True if white was on and symbol was set.
    GBUdbPatternSourceConflict = false;                                         // True if a pattern was found with a white IP.
    GBUdbAutoPanicTriggered = false;                                            // True if autopanic was triggered.
    GBUdbAutoPanicExecuted = false;                                             // True if an autopanic was added.

    GBUdbBlackTriggered = false;                                                // True if GBUdb found source IP black.
    GBUdbBlackSymbolForced = false;                                             // True if black was on and symbol was set.
    GBUdbTruncateTriggered = false;                                             // True if Truncate was possible.
    GBUdbPeekTriggered = false;                                                 // True if we could peek.
    GBUdbSampleTriggered = false;                                               // True if we could sample.

    GBUdbTruncateExecuted = false;                                              // True if we actually did truncate.
    GBUdbPeekExecuted = false;                                                  // True if we peeked instead of truncating.
    GBUdbSampleExecuted = false;                                                // True if we sampled.


    GBUdbCautionTriggered = false;                                              // True if GBUdb found source IP suspicous.
    GBUdbCautionSymbolForced = false;                                           // True if caution was on and symbol was set.

    // Clear the rule panic tracking list

    RulePanics.clear();                                                         // Remove all entries.

    // Pattern Engine Scan Result Data

    HeaderDirectiveFlags = 0UL;                                                 // Flags set by header directives.

    PatternWasFound = false;                                                    // True if a pattern was found.
    PatternID = 0;                                                              // Rule ID of the pattern.
    PatternSymbol = 0;                                                          // Symbol of the pattern.

    MatchRecords.clear();                                                       // Clear the match records list.
    MatchRecordsCursor = MatchRecords.end();                                    // Init the cursor to nowhere.

    CompositeFinalResult = -1;

}

//// snfCounterPack ////////////////////////////////////////////////////////////

snfCounterPack::snfCounterPack() {                                              // When constructing a counter pack
    reset();                                                                    // reset it.
}

void snfCounterPack::reset() {                                                  // When asked to reset we do this:
    memset(&Events, 0, sizeof(Events));                                         // Fill them with zeros.
}

//// IntervalTimer /////////////////////////////////////////////////////////////

cd::Timer& IntervalTimer::Active() {                                            // Return the active timer.
    return ((ANotB)?A:B);                                                       // If A is active, return A
}                                                                               // otherwise return B.

cd::Timer& IntervalTimer::Inactive() {                                          // Return the inactive timer.
    return ((ANotB)?B:A);                                                       // If A is active, return B
}                                                                               // otherwise return A.

cd::msclock IntervalTimer::hack() {                                             // Chop off a new interval & return it.
    Inactive().start(Active().stop());                                          // Stop the active clock and reference
    ANotB = !ANotB;                                                             // it to start the new Active clock.
    return Interval();                                                          // Flip the bit and return the Interval.
}

cd::msclock IntervalTimer::Interval() {                                         // Return the last interval.
    return Inactive().getElapsedTime();                                         // Return the Inactive elapsed time.
}

cd::msclock IntervalTimer::Elapsed() {                                          // Return the time since last hack.
    return Active().getElapsedTime();                                           // Return the Active elapsed time.
}

//// snfLOGmgr /////////////////////////////////////////////////////////////////

const cd::ThreadType snfLOGmgr::Type("snfLOGmgr");                              // The thread's type.

snfLOGmgr::snfLOGmgr() :                                                        // Constructor for the LOG manager
  Thread(snfLOGmgr::Type, "Log Manager"),                                       // snfLOGmgr Type and Name.
  Configured(false),                                                            // Not yet configured.
  TimeToDie(false),                                                             // Not yet time to die.
  PeekEnableCounter(0),                                                         // No peeking yet.
  SampleEnableCounter(0),                                                       // No sampling yet.
  myNETmgr(NULL),                                                               // No NET mgr yet.
  myGBUdb(NULL),                                                                // No GBUdb yet.
  NewerRulebaseIsAvailable(false),                                              // No newer rulebase yet.
  SecondStatusLogger("Second Status Logger"),                                   // Lazy writer for Second status.
  MinuteStatusLogger("Minute Status Logger"),                                   // Lazy writer for Minute status.
  HourStatusLogger("Hour Status Logger"),                                       // Lazy writer for Hour status.
  XMLScanLogger("XML Scan Logger"),                                             // Lazy writer for XML Scan log.
  ClassicScanLogger("Classic Scan Logger") {                                    // Lazy writer for Classic Scan log.
    StartupTime = Timestamp();                                                  // Record when did we start.
    CurrentCounters = &CounterPackA;                                            // Assign the active CounterPack.
    ReportingCounters = &CounterPackB;                                          // Assign the reporting CounterPack.
    Timestamp(SecondReportTimestamp);                                           // Set the basetime for the Second,
    Timestamp(MinuteReportTimestamp);                                           // Minute, and Hour status reports.
    Timestamp(HourReportTimestamp);
    run();                                                                      // Run the thread.
}

snfLOGmgr::~snfLOGmgr() {                                                       // When we go away we must
    stop();                                                                     // stop if we haven't already.
    if(Configured) Status.store(PersistentFileName);                            // If safe, store our persistent data.
}

void snfLOGmgr::linkNETmgr(snfNETmgr& N) { myNETmgr = &N; }                     // Link in my NETmgr

void snfLOGmgr::linkGBUdb(GBUdb& G) { myGBUdb = &G; }                           // Link in my GBUdb

void snfLOGmgr::stop() {                                                        // When we want to stop
    if(!TimeToDie) {                                                            // check that we didn't already, then
        TimeToDie = true;                                                       // we set time to die and
        join();                                                                 // join the thread;
    }
}

//// Here are some functions for creating status reports.

// Handy subroutine to encapsulate status log posting logic.

void snfLOGmgr::postStatusLog(                                                  // Post a Status log if required.
  const std::string& LogData,                                                   // Here's the log entry's data.
  const std::string& LogFileName,                                               // Here is where it should go.
  const bool LogEnabled,                                                        // This is true if we should write it.
  const bool AppendNotOverwrite,                                                // True=Append, False=Overwrite.
  DiscLogger& Logger                                                            // The logger to use.
  ) {
    if(!LogEnabled) return;                                                     // If we're not supposed to, don't!
    std::string TFN = LogFileName;                                              // Tagged File Name

    if(AppendNotOverwrite) {                                                    // If we're appending, rotate per day.
        TFN.append(".");                                                        // Put a timestamp on the file name.
        if(Rotate_LocalTime) { LocalTimestamp(TFN); }                           // Use either the local timestamp or
        else { Timestamp(TFN); }                                                // the utc timestamp as configured.
        TFN = TFN.substr(0, TFN.length() - 6);                                  // Stip off the Hours, Minutes, Seconds.
    }

    TFN.append(".log.xml");                                                     // Tack on the extension.

    // Now feed this to the lazy logger.

    Logger.Enabled(LogEnabled);                                                 // Set the enable flag.
    Logger.AppendMode(AppendNotOverwrite);                                      // Set the append mode.
    Logger.post(LogData, TFN);                                                  // Post data and update the name.

}

// Handy function to normalize data to a base.
// Also, a collection of handy bases to normalize to ;-)

const int MillisecondsInASecond = 1000;                                         // Second
const int MillisecondsInAMinute = MillisecondsInASecond * 60;                   // Minute
const int MillisecondsInAnHour  = MillisecondsInAMinute * 60;                   // Hour
const int MillisecondsInADay = MillisecondsInAnHour * 24;                       // Day

double snf_rationalize(double Count, double Base, double NewBase) {             // Cross multiply to convert bases.
    if(0.0 == Base) return 0.0;                                                 // Handle division by zero like this.
    return (Count * NewBase) / Base;                                            // Do the math.
}

double snf_AveragePerSecond(snf_SMHDMY_Counter& D, snf_SMHDMY_Counter& T) {     // Avg Data/sec given Data & Time Counters.
    return snf_rationalize(
      D.SEC6SUM, T.SEC6SUM, MillisecondsInASecond);
}

double snf_AveragePerMinute(snf_SMHDMY_Counter& D, snf_SMHDMY_Counter& T) {     // Avg Data/min given Data & Time Counters.
    return snf_rationalize(
      D.SumThru1Minute(), T.SumThru1Minute(), MillisecondsInAMinute);
}

double snf_AveragePerHour(snf_SMHDMY_Counter& D, snf_SMHDMY_Counter& T) {       // Avg Data/min given Data & Time Counters.
    return snf_rationalize(
      D.SumThru1Hour(), T.SumThru1Hour(), MillisecondsInAnHour);
}

double snf_AveragePerDay(snf_SMHDMY_Counter& D, snf_SMHDMY_Counter& T) {        // Avg Data/min given Data & Time Counters.
    return snf_rationalize(
      D.SumThru1Day(), T.SumThru1Day(), MillisecondsInADay);
}

void AppendRatesElement(                                                        // Format & output a rates element.
  const char* Name,                                                             // The name of the element (usually 1 char).
  snf_SMHDMY_Counter& D,                                                        // Data counter
  snf_SMHDMY_Counter& T,                                                        // Time counter
  std::ostringstream& S) {                                                      // Where to append the formatted output.
    S << "\t\t<" << Name << " "
      << "s=\'" << snf_AveragePerSecond(D, T) << "\' "
      << "m=\'" << snf_AveragePerMinute(D, T) << "\' "
      << "h=\'" << snf_AveragePerHour(D, T) << "\' "
      << "d=\'" << snf_AveragePerDay(D, T) << "\'/>"
      << std::endl;
}

void AppendHistogramElements(cd::Histogram& H, std::ostringstream& S) {         // Format & output a histogram.
    if(0 < H.size()) {                                                          // Don't output empty histograms.
        S << "\t\t<histogram hits=\'" << H.Hits() << "\'>" << std::endl;        // Open tag w/ hits count.
        std::set<cd::HistogramRecord>::iterator iH;                             // Use an iterator to
        for(iH = H.begin(); iH != H.end(); iH++) {                              // loop through all of the groups.
            S << "\t\t\t<g k=\'"                                                // For each group in the histogram
              << (*iH).Key << "\' c=\'"                                         // output the key value and
              << (*iH).Count << "\'/>" << std::endl;                            // the count of hits.
        }
        S << "\t\t</histogram>" << std::endl;                                   // Close tag.
    }
}

// This gets called once per second. It is responsible for inputting the base
// data into all of the histograms and counter mechnisms. After that, the minute
// and hour reports are triggered when a full cycle of lower order data has
// been collected.

bool snfLOGmgr::do_SecondReport() {                                             // Send our 1 second status report.

    // First thing - we always update the summaries for everybody :-)

    snfCounterPack& Counters = (*(getSnapshot()));                              // Get and swap the counters.
    TimeCounter.input(Counters.ActiveTime.getElapsedTime());                    // Add the time interval.
    MessageCounter.input(Counters.Events.Scans);                                // Add the number of scans (messages).
    SpamCounter.input(Counters.Events.Spam);                                    // Add the number of Spam events.
    HamCounter.input(Counters.Events.Ham);                                      // Add the number of Ham events.
    WhiteCounter.input(Counters.Events.GBUdbWhiteSymbolForced);                 // Add the number of White events.
    CautionCounter.input(Counters.Events.GBUdbCautionSymbolForced);             // Add the number of Caution events.
    BlackCounter.input(Counters.Events.GBUdbBlackSymbolForced);                 // Add the number of Black events.
    TruncateCounter.input(Counters.Events.GBUdbTruncateExecuted);               // Add the number of Truncate events.
    SampleCounter.input(Counters.Events.GBUdbSampleExecuted);                   // Add the number of Sample events.
    AutoPanicCounter.input(Counters.Events.GBUdbAutoPanicTriggered);            // Add the number of AutoPanic events.
    RulePanicCounter.input(Counters.Events.RulePanicFound);                     // Add the number of RulePanic events.

    // Next we produce our "Second" status report.

    std::ostringstream Report;

    //-- Report the stats element --

    Report << "<stats nodeid=\'" << NodeId << "\' "
           << "basetime=\'" << SecondReportTimestamp << "\' "
           << "elapsed=\'" << Counters.ActiveTime.getElapsedTime() << "\' "
           << "class=\'second\'>" << std::endl;

    SecondReportTimestamp = ""; Timestamp(SecondReportTimestamp);               // Reset the timestamp for next time.

    //-- Version data --

    Report << "\t<version>" << std::endl
           << "\t\t<engine>" << SNF_ENGINE_VERSION << "</engine>" << std::endl;

    if(0 < myPlatformVersion.length()) {
        Report << "\t\t<platform>" << myPlatformVersion << "</platform>" << std::endl;
    }

    Report << "\t</version>" << std::endl;

    //-- Timers section --

    Report << "\t<timers>" << std::endl;
    Report << "\t\t<run started=\'" << Timestamp(StartupTime) << "\' "
           << "elapsed=\'" << SecsSinceStartup() << "\'/>" << std::endl;

    Report << "\t\t<sync latest=\'" << Timestamp(Status.LastSyncTime) << "\' "
           << "elapsed=\'" << SecsSinceLastSync() << "\'/>" << std::endl;

    Report << "\t\t<save latest=\'" << Timestamp(Status.LastSaveTime) << "\' "
           << "elapsed=\'" << SecsSinceLastSave() << "\'/>" << std::endl;

    Report << "\t\t<condense latest=\'" << Timestamp(Status.LastCondenseTime) << "\' "
           << "elapsed=\'" << SecsSinceLastCondense() << "\'/>" << std::endl;

    Report << "\t</timers>" << std::endl;

    //-- GBUdb section --

    Report << "\t<gbudb>" << std::endl;

    Report << "\t\t<size bytes=\'" << (*myGBUdb).Size() << "\'/>" << std::endl;
    Report << "\t\t<records count=\'" << (*myGBUdb).IPCount() << "\'/>" << std::endl;
    Report << "\t\t<utilization percent=\'" << (*myGBUdb).Utilization() << "\'/>" << std::endl;

    Report << "\t</gbudb>" << std::endl;

    //-- Counters --

    Report << "\t<counters>" << std::endl;

    if(0 < Counters.Events.Scans) {
        Report << "\t\t<m c=\'" << Counters.Events.Scans << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.Spam) {
        Report << "\t\t<s c=\'" << Counters.Events.Spam << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.Ham) {
        Report << "\t\t<h c=\'" << Counters.Events.Ham << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.GBUdbTruncateExecuted) {
        Report << "\t\t<t c=\'" << Counters.Events.GBUdbTruncateExecuted << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.GBUdbBlackSymbolForced) {
        Report << "\t\t<b c=\'" << Counters.Events.GBUdbBlackSymbolForced << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.GBUdbCautionSymbolForced) {
        Report << "\t\t<c c=\'" << Counters.Events.GBUdbCautionSymbolForced << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.GBUdbWhiteSymbolForced) {
        Report << "\t\t<w c=\'" << Counters.Events.GBUdbWhiteSymbolForced << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.GBUdbAutoPanicExecuted) {
        Report << "\t\t<a c=\'" << Counters.Events.GBUdbAutoPanicExecuted << "\'/>" << std::endl;
    }

    if(0 < Counters.Events.RulePanicFound) {
        Report << "\t\t<r c=\'" << Counters.Events.RulePanicFound << "\'/>" << std::endl;
    }

    Report << "\t</counters>" << std::endl;
    Counters.reset();                                                           // When done, clear the counters.

    //-- Rates ---

    Report << "\t<rates>" << std::endl;
    AppendRatesElement("m", MessageCounter, TimeCounter, Report);
    AppendRatesElement("s", SpamCounter, TimeCounter, Report);
    AppendRatesElement("h", HamCounter, TimeCounter, Report);
    AppendRatesElement("w", WhiteCounter, TimeCounter, Report);
    AppendRatesElement("c", CautionCounter, TimeCounter, Report);
    AppendRatesElement("b", BlackCounter, TimeCounter, Report);
    AppendRatesElement("t", TruncateCounter, TimeCounter, Report);
    AppendRatesElement("a", AutoPanicCounter, TimeCounter, Report);
    AppendRatesElement("r", RulePanicCounter, TimeCounter, Report);
    Report << "\t</rates>" << std::endl;

    //-- Results ---

    Report << "\t<results>" << std::endl;
    AppendHistogramElements(ResultsSecond, Report);
    ResultsSecond.reset();
    Report << "\t</results>" << std::endl;

    //-- Rules ---

    Report << "\t<rules>" << std::endl;
    std::string RBUTC;
    Report << "\t\t<rulebase utc=\'" << (*myNETmgr).RulebaseUTC(RBUTC) << "\'/>" << std::endl;
    Report << "\t\t<active utc=\'" << ActiveRulebaseUTC << "\'/>" << std::endl;
    Report << "\t\t<update ready=\'" << ((NewerRulebaseIsAvailable)?"yes":"no")
           << "\' utc=\'" << AvailableRulebaseUTC << "\'/>" << std::endl;
    Report << "\t\t<latest rule=\'" << LatestRuleID() << "\'/>" << std::endl;
    AppendHistogramElements(RulesSecond, Report);
    RulesSecond.reset();
    Report << "\t</rules>" << std::endl;

    //-- Panics ---

    Report << "\t<panics>" << std::endl;
    AppendHistogramElements(PanicsSecond, Report);
    PanicsSecond.reset();
    Report << "\t</panics>" << std::endl;

    //-- Close the stats element --

    Report << "</stats>" << std::endl;

    // Now that we've built the report we need to store it and send it to
    // the network manager.

    ConfigMutex.lock();                                                         // Freeze while we get our settings.
    bool LogEnabled = SecondReport_Log_OnOff;                                   // To log or not to log?
    bool AppendNotOverwrite = SecondReport_Append_OnOff;                        // To append or overwrite?
    std::string LogFileName = SecondReport_Log_Filename;                        // What file name?
    ConfigMutex.unlock();                                                       // Ok, done with that.

    postStatusLog(                                                              // Post a Status log if required.
      Report.str(),                                                             // Here's the log entry's data.
      LogFileName,                                                              // Here is where it should go.
      LogEnabled,                                                               // This is true if we should write it.
      AppendNotOverwrite,                                                       // True=Append, False=Overwrite.
      SecondStatusLogger                                                        // Lazy log writer to use.
    );

    // Just before we go we save our stat for others to see.

    cd::ScopeMutex HoldForStatusUpdate(StatusReportMutex);                      // Hold the mutex just long enough
    SecondReportText = Report.str();                                            // to post our status and return

    // Finally we return the test - Do we have a complete cycle in Seconds?

    return(TimeCounter.Cycled60Seconds());                                      // True on a full cycle of seconds.
}

bool snfLOGmgr::do_MinuteReport() {                                             // Send our 1 minute status report.

    // Produce our "Minute" status report.

    std::ostringstream Report;

    //-- Report the stats element --

    Report << "<stats nodeid=\'" << NodeId << "\' "
           << "basetime=\'" << MinuteReportTimestamp << "\' "
           << "elapsed=\'" << TimeCounter.Sum60Seconds() << "\' "
           << "class=\'minute\'>" << std::endl;

    MinuteReportTimestamp = ""; Timestamp(MinuteReportTimestamp);               // Reset the timestamp for next time.

    //-- Version data --

    Report << "\t<version>" << std::endl
           << "\t\t<engine>" << SNF_ENGINE_VERSION << "</engine>" << std::endl;

    if(0 < myPlatformVersion.length()) {
        Report << "\t\t<platform>" << myPlatformVersion << "</platform>" << std::endl;
    }

    Report << "\t</version>" << std::endl;

    //-- Timers section --

    Report << "\t<timers>" << std::endl;
    Report << "\t\t<run started=\'" << Timestamp(StartupTime) << "\' "
           << "elapsed=\'" << SecsSinceStartup() << "\'/>" << std::endl;

    Report << "\t\t<sync latest=\'" << Timestamp(Status.LastSyncTime) << "\' "
           << "elapsed=\'" << SecsSinceLastSync() << "\'/>" << std::endl;

    Report << "\t\t<save latest=\'" << Timestamp(Status.LastSaveTime) << "\' "
           << "elapsed=\'" << SecsSinceLastSave() << "\'/>" << std::endl;

    Report << "\t\t<condense latest=\'" << Timestamp(Status.LastCondenseTime) << "\' "
           << "elapsed=\'" << SecsSinceLastCondense() << "\'/>" << std::endl;

    Report << "\t</timers>" << std::endl;

    //-- GBUdb section --

    Report << "\t<gbudb>" << std::endl;

    Report << "\t\t<size bytes=\'" << (*myGBUdb).Size() << "\'/>" << std::endl;
    Report << "\t\t<records count=\'" << (*myGBUdb).IPCount() << "\'/>" << std::endl;
    Report << "\t\t<utilization percent=\'" << (*myGBUdb).Utilization() << "\'/>" << std::endl;

    Report << "\t</gbudb>" << std::endl;

    //-- Counters --

    Report << "\t<counters>" << std::endl;

    if(0 < MessageCounter.Sum60Seconds()) {
        Report << "\t\t<m c=\'" << MessageCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < SpamCounter.Sum60Seconds()) {
        Report << "\t\t<s c=\'" << SpamCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < HamCounter.Sum60Seconds()) {
        Report << "\t\t<h c=\'" << HamCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < TruncateCounter.Sum60Seconds()) {
        Report << "\t\t<t c=\'" << TruncateCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < BlackCounter.Sum60Seconds()) {
        Report << "\t\t<b c=\'" << BlackCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < CautionCounter.Sum60Seconds()) {
        Report << "\t\t<c c=\'" << CautionCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < WhiteCounter.Sum60Seconds()) {
        Report << "\t\t<w c=\'" << WhiteCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < AutoPanicCounter.Sum60Seconds()) {
        Report << "\t\t<a c=\'" << AutoPanicCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    if(0 < RulePanicCounter.Sum60Seconds()) {
        Report << "\t\t<a c=\'" << RulePanicCounter.Sum60Seconds() << "\'/>" << std::endl;
    }

    Report << "\t</counters>" << std::endl;

    //-- Rates ---

    Report << "\t<rates>" << std::endl;
    AppendRatesElement("m", MessageCounter, TimeCounter, Report);
    AppendRatesElement("s", SpamCounter, TimeCounter, Report);
    AppendRatesElement("h", HamCounter, TimeCounter, Report);
    AppendRatesElement("w", WhiteCounter, TimeCounter, Report);
    AppendRatesElement("c", CautionCounter, TimeCounter, Report);
    AppendRatesElement("b", BlackCounter, TimeCounter, Report);
    AppendRatesElement("t", TruncateCounter, TimeCounter, Report);
    AppendRatesElement("a", AutoPanicCounter, TimeCounter, Report);
    AppendRatesElement("r", RulePanicCounter, TimeCounter, Report);
    Report << "\t</rates>" << std::endl;

    //-- Results ---

    Report << "\t<results>" << std::endl;
    AppendHistogramElements(ResultsMinute, Report);
    ResultsMinute.reset();
    Report << "\t</results>" << std::endl;

    //-- Rules ---

    Report << "\t<rules>" << std::endl;
    std::string RBUTC;
    Report << "\t\t<rulebase utc=\'" << (*myNETmgr).RulebaseUTC(RBUTC) << "\'/>" << std::endl;
    Report << "\t\t<active utc=\'" << ActiveRulebaseUTC << "\'/>" << std::endl;
    Report << "\t\t<update ready=\'" << ((NewerRulebaseIsAvailable)?"yes":"no")
           << "\' utc=\'" << AvailableRulebaseUTC << "\'/>" << std::endl;
    Report << "\t\t<latest rule=\'" << LatestRuleID() << "\'/>" << std::endl;
    AppendHistogramElements(RulesMinute, Report);
    RulesMinute.reset();
    Report << "\t</rules>" << std::endl;

    //-- Panics ---

    Report << "\t<panics>" << std::endl;
    AppendHistogramElements(PanicsMinute, Report);
    PanicsMinute.reset();
    Report << "\t</panics>" << std::endl;

    //-- Close the stats element --

    Report << "</stats>" << std::endl;

    // Now that we've built the report we need to store it and send it to
    // the network manager.

    ConfigMutex.lock();                                                         // Freeze while we get our settings.
    bool LogEnabled = MinuteReport_Log_OnOff;                                   // To log or not to log?
    bool AppendNotOverwrite = MinuteReport_Append_OnOff;                        // To append or overwrite?
    std::string LogFileName = MinuteReport_Log_Filename;                        // What file name?
    ConfigMutex.unlock();                                                       // Ok, done with that.

    postStatusLog(                                                              // Post a Status log if required.
      Report.str(),                                                             // Here's the log entry's data.
      LogFileName,                                                              // Here is where it should go.
      LogEnabled,                                                               // This is true if we should write it.
      AppendNotOverwrite,                                                       // True=Append, False=Overwrite.
      MinuteStatusLogger                                                        // Lazy log writer to use.
    );

    (*myNETmgr).sendReport(Report.str());                                       // Send the status report to the net.

    // Just before we go we save our stat for others to see.

    cd::ScopeMutex HoldForStatusUpdate(StatusReportMutex);                      // Hold the mutex just long enough
    MinuteReportText = Report.str();                                            // to post our status and return

    return(TimeCounter.Cycled60Minutes());                                      // True at a full cycle of minutes.
}

bool snfLOGmgr::do_HourReport() {                                               // Send our 1 hour status report.

    // Produce our "Hour" status report.

    std::ostringstream Report;

    //-- Report the stats element --

    Report << "<stats nodeid=\'" << NodeId << "\' "
           << "basetime=\'" << HourReportTimestamp << "\' "
           << "elapsed=\'" << TimeCounter.Sum60Minutes() << "\' "
           << "class=\'hour\'>" << std::endl;

    HourReportTimestamp = ""; Timestamp(HourReportTimestamp);                   // Reset the timestamp for next time.

    //-- Version data --

    Report << "\t<version>" << std::endl
           << "\t\t<engine>" << SNF_ENGINE_VERSION << "</engine>" << std::endl;

    if(0 < myPlatformVersion.length()) {
        Report << "\t\t<platform>" << myPlatformVersion << "</platform>" << std::endl;
    }

    Report << "\t</version>" << std::endl;

    //-- Timers section --

    Report << "\t<timers>" << std::endl;
    Report << "\t\t<run started=\'" << Timestamp(StartupTime) << "\' "
           << "elapsed=\'" << SecsSinceStartup() << "\'/>" << std::endl;

    Report << "\t\t<sync latest=\'" << Timestamp(Status.LastSyncTime) << "\' "
           << "elapsed=\'" << SecsSinceLastSync() << "\'/>" << std::endl;

    Report << "\t\t<save latest=\'" << Timestamp(Status.LastSaveTime) << "\' "
           << "elapsed=\'" << SecsSinceLastSave() << "\'/>" << std::endl;

    Report << "\t\t<condense latest=\'" << Timestamp(Status.LastCondenseTime) << "\' "
           << "elapsed=\'" << SecsSinceLastCondense() << "\'/>" << std::endl;

    Report << "\t</timers>" << std::endl;

    //-- GBUdb section --

    Report << "\t<gbudb>" << std::endl;

    Report << "\t\t<size bytes=\'" << (*myGBUdb).Size() << "\'/>" << std::endl;
    Report << "\t\t<records count=\'" << (*myGBUdb).IPCount() << "\'/>" << std::endl;
    Report << "\t\t<utilization percent=\'" << (*myGBUdb).Utilization() << "\'/>" << std::endl;

    Report << "\t</gbudb>" << std::endl;

    //-- Counters --

    Report << "\t<counters>" << std::endl;

    if(0 < MessageCounter.Sum60Minutes()) {
        Report << "\t\t<m c=\'" << MessageCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < SpamCounter.Sum60Minutes()) {
        Report << "\t\t<s c=\'" << SpamCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < HamCounter.Sum60Minutes()) {
        Report << "\t\t<h c=\'" << HamCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < TruncateCounter.Sum60Minutes()) {
        Report << "\t\t<t c=\'" << TruncateCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < BlackCounter.Sum60Minutes()) {
        Report << "\t\t<b c=\'" << BlackCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < CautionCounter.Sum60Minutes()) {
        Report << "\t\t<c c=\'" << CautionCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < WhiteCounter.Sum60Minutes()) {
        Report << "\t\t<w c=\'" << WhiteCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < AutoPanicCounter.Sum60Minutes()) {
        Report << "\t\t<a c=\'" << AutoPanicCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    if(0 < RulePanicCounter.Sum60Minutes()) {
        Report << "\t\t<a c=\'" << RulePanicCounter.Sum60Minutes() << "\'/>" << std::endl;
    }

    Report << "\t</counters>" << std::endl;

    //-- Rates ---

    Report << "\t<rates>" << std::endl;
    AppendRatesElement("m", MessageCounter, TimeCounter, Report);
    AppendRatesElement("s", SpamCounter, TimeCounter, Report);
    AppendRatesElement("h", HamCounter, TimeCounter, Report);
    AppendRatesElement("w", WhiteCounter, TimeCounter, Report);
    AppendRatesElement("c", CautionCounter, TimeCounter, Report);
    AppendRatesElement("b", BlackCounter, TimeCounter, Report);
    AppendRatesElement("t", TruncateCounter, TimeCounter, Report);
    AppendRatesElement("a", AutoPanicCounter, TimeCounter, Report);
    AppendRatesElement("r", RulePanicCounter, TimeCounter, Report);
    Report << "\t</rates>" << std::endl;

    //-- Results ---

    Report << "\t<results>" << std::endl;
    AppendHistogramElements(ResultsHour, Report);
    ResultsHour.reset();
    Report << "\t</results>" << std::endl;

    //-- Rules ---

    Report << "\t<rules>" << std::endl;
    std::string RBUTC;
    Report << "\t\t<rulebase utc=\'" << (*myNETmgr).RulebaseUTC(RBUTC) << "\'/>" << std::endl;
    Report << "\t\t<active utc=\'" << ActiveRulebaseUTC << "\'/>" << std::endl;
    Report << "\t\t<update ready=\'" << ((NewerRulebaseIsAvailable)?"yes":"no")
           << "\' utc=\'" << AvailableRulebaseUTC << "\'/>" << std::endl;
    Report << "\t\t<latest rule=\'" << LatestRuleID() << "\'/>" << std::endl;
    AppendHistogramElements(RulesHour, Report);
    RulesHour.reset();
    Report << "\t</rules>" << std::endl;

    //-- Panics ---

    Report << "\t<panics>" << std::endl;
    AppendHistogramElements(PanicsHour, Report);
    PanicsHour.reset();
    Report << "\t</panics>" << std::endl;

    //-- Close the stats element --

    Report << "</stats>" << std::endl;

    // Now that we've built the report we need to store it and send it to
    // the network manager.

    ConfigMutex.lock();                                                         // Freeze while we get our settings.
    bool LogEnabled = HourReport_Log_OnOff;                                     // To log or not to log?
    bool AppendNotOverwrite = HourReport_Append_OnOff;                          // To append or overwrite?
    std::string LogFileName = HourReport_Log_Filename;                          // What file name?
    ConfigMutex.unlock();                                                       // Ok, done with that.

    postStatusLog(                                                              // Post a Status log if required.
      Report.str(),                                                             // Here's the log entry's data.
      LogFileName,                                                              // Here is where it should go.
      LogEnabled,                                                               // This is true if we should write it.
      AppendNotOverwrite,                                                       // True=Append, False=Overwrite.
      HourStatusLogger                                                          // Lazy log writer to use.
    );

    // Just before we go we save our stat for others to see.

    cd::ScopeMutex HoldForStatusUpdate(StatusReportMutex);                      // Hold the mutex just long enough
    HourReportText = Report.str();                                              // to post our status and return

    return(TimeCounter.Cycled24Hours());                                        // True at a full cycle of hours.
}

void snfLOGmgr::do_StatusReports() {                                            // Do the status reports.
    cd::ScopeMutex PauseWhileITotalThis(MyMutex);                               // Everybody stop for a bit. Each report
    if(do_SecondReport())                                                       // returns true if it has cycled so
      if(do_MinuteReport())                                                     // that the next report can be checked
        do_HourReport();                                                        // to see if it has cycled.
}

void snfLOGmgr::myTask() {                                                      // Thread: Live stats & reports.
    cd::Sleeper WaitATic(MillisecondsInASecond);                                // One second sleeper.
    while(!TimeToDie) {                                                         // Do this until it's time to die.
        if(Configured) {                                                        // If we are configured do our work.
            do_StatusReports();                                                 // Make our status reports (chained).
        }
        WaitATic();
    }
}

// Note about snfLOGmgr::configure() and Status.restore()
// store() and restore() watch the Status.Ready flag. If
// Status is ready, restore() won't. If Status is not ready
// store() won't. Also, if restore() doesn't find a file, it
// just clears everything and goes ready, assuming that this
// is a new persistent state.

void snfLOGmgr::configure(snfCFGData& CFGData) {                                // Update the configuration.
    cd::ScopeMutex HoldOnWhileITweakThisThing(ConfigMutex);
    PersistentFileName = CFGData.paths_workspace_path + ".state";               // Build the persistent state path.
    Status.restore(PersistentFileName);                                         // Load our persistent state.
    NodeId = CFGData.node_licenseid;                                            // Grab the node id for reports.

    // Copy the logging configuration info from CFGData

    Rotate_LocalTime = CFGData.Logs_Rotation_LocalTime_OnOff;                   // Rotate using local time?

    XML_Log_Mode = CFGData.Scan_XML_Mode;                                       // What is the XML log mode.
    Classic_Log_Mode = CFGData.Scan_Classic_Mode;                               // What is the Classic log mode.

    LogsPath = CFGData.paths_log_path;                                          // Path to logs directory.
    ClassicLogRotate = CFGData.Scan_Classic_Rotate;                             // True = Rotate Classic Log.
    XMLLogRotate = CFGData.Scan_XML_Rotate;                                     // True = Rotate XML Log.

    SecondReport_Log_OnOff = CFGData.Status_SecondReport_Log_OnOff;
    SecondReport_Append_OnOff = CFGData.Status_SecondReport_Append_OnOff;
    SecondReport_Log_Filename = CFGData.paths_log_path + NodeId + ".status.second";
    MinuteReport_Log_OnOff = CFGData.Status_MinuteReport_Log_OnOff;
    MinuteReport_Append_OnOff = CFGData.Status_MinuteReport_Append_OnOff;
    MinuteReport_Log_Filename = CFGData.paths_log_path + NodeId + ".status.minute";
    HourReport_Log_OnOff = CFGData.Status_HourReport_Log_OnOff;
    HourReport_Append_OnOff = CFGData.Status_HourReport_Append_OnOff;
    HourReport_Log_Filename = CFGData.paths_log_path + NodeId + ".status.hour";

    // Sanity check

    if(NULL != myNETmgr && NULL != myGBUdb) {                                   // If we are fully linked then
        Configured = true;                                                      // we are now configured.
    }
}

void snfLOGmgr::doXHDRs(snfCFGData& CFGData, snfScanData& ScanData) {           // XHDR sub routine for LogThisScan()
    std::ostringstream O;                                                       // Setup the output stream.

    const std::string SMTPENDL = "\r\n";                                        // Make a hard-coded SMTP endline.

    // Version header

    if(CFGData.XHDRVersion_OnOff) {                                             // If the Version XHDR is on then
        O << CFGData.XHDRVersion_Header << ": "                                 // emit the Version XHDR.
          << SMTPENDL << "\t" << SNF_ENGINE_VERSION;

        if(0 < myPlatformVersion.length()) {                                    // Optional Platform Version.
            O << SMTPENDL << "\t" << myPlatformVersion;
        }

        O  << SMTPENDL;
    }

    // License header

    if(CFGData.XHDRLicense_OnOff) {                                             // If the license XHDR is on then
        O << CFGData.XHDRLicense_Header << ": "                                 // emit the License XHRD.
          << CFGData.node_licenseid
          << SMTPENDL;
    }

    // Rulebase header

    if(CFGData.XHDRRulebase_OnOff) {                                            // If the rulebase utc XHDR is on
        std::string RBUTC;                                                      // then make a string to capture it
        O << CFGData.XHDRRulebase_Header << ": "                                // then emit the rulebase utc XHDR.
          << (*myNETmgr).RulebaseUTC(RBUTC)
          << SMTPENDL;
    }

    // Identifier header

    if(CFGData.XHDRIdentifier_OnOff) {                                          // If the identifier XHDR is on
        O << CFGData.XHDRIdentifier_Header << ": "                              // then emit the scan identifier.
          << ScanData.ScanName
          << SMTPENDL;
    }

    // GBUdb header

    if(CFGData.XHDRGBUdb_OnOff) {                                               // If the GBUdb XHDR is on then
        O << CFGData.XHDRGBUdb_Header << ": ";                                  // then emit the GBUdb XHDR.
        if(!ScanData.FoundSourceIP()) {                                         // If no source was identified
            O << "Unknown"                                                      // then we emit "Unknown".
              << SMTPENDL;
        } else {                                                                // If the source was identified
            O << ScanData.SourceIPRecord().Ordinal << ", "                            // then we emit the ordial,
              << (std::string) cd::IP4Address(ScanData.SourceIPRecord().IP) << ", "   // the IP, and then
              << ScanData.SourceIPEvaluation                                          // the IP evaluation that was
              << SMTPENDL;                                                            // sent to the scanner.
        }
    }

    // Result header

    if(CFGData.XHDRResult_OnOff) {                                              // If the Result XHDR is on then
        O << CFGData.XHDRResult_Header << ": "                                  // emit the scan result code XHDR.
          << ScanData.CompositeFinalResult
          << SMTPENDL;
    }

    // Matches header

    if(CFGData.XHDRMatches_OnOff) {                                             // If the Matches XHDR is on then
        O << CFGData.XHDRMatches_Header << ":" << SMTPENDL;                     // emit the Matches XHDR with matches.
        for(
          std::list<snf_match>::iterator iM = ScanData.MatchRecords.begin();    // Loop through the match list
          iM != ScanData.MatchRecords.end(); iM++                               // one by one.
          ) {
            snf_match& M = (*iM);                                               // Emit each match record as a
            O << "\t"                                                           // folded entry in the header.
              << M.symbol << "-"                                                // symbol-ruleid-index-endex-flag
              << M.ruleid << "-"
              << M.index << "-"
              << M.endex << "-"
              << M.flag
              << SMTPENDL;
        }
    }

    // Black header

    const int AboveBandRange = 64;

    if(
      CFGData.XHDRBlack_OnOff &&                                                // If the Black XHDR is on and
      0 < ScanData.CompositeFinalResult &&                                      // We have a nonzero result and
      AboveBandRange > ScanData.CompositeFinalResult &&                         // it is not an above-band code and
      !CFGData.TrainingWhiteRuleHandler.isListed(                               // it is not found in the training
        ScanData.CompositeFinalResult)                                          // white list then...
      ) {
        O << CFGData.XHDRBlack_Header                                           // Emit the Black XHDR.
          << SMTPENDL;
    }

    // White header

    if(                                                                         // If the White XHDR is on and
      CFGData.XHDRWhite_OnOff &&                                                // the result was listed in the
      CFGData.TrainingWhiteRuleHandler.isListed(                                // training white list then...
        ScanData.CompositeFinalResult)
      ) {
        O << CFGData.XHDRWhite_Header                                           // Emit the White XHDR.
          << SMTPENDL;
    }

    // Clean header

    if(
      CFGData.XHDRClean_OnOff &&                                                // If the Clean XHDR is on and
      !ScanData.PatternWasFound &&                                              // no pattern was found and
      0 == ScanData.CompositeFinalResult                                        // the scan result is zero then...
      ) {
        O << CFGData.XHDRClean_Header                                           // Emit the Clean XHDR
          << SMTPENDL;
    }

    // Symbol headers

    std::string SH = CFGData.XHDRSymbolHeaders.HeaderForSymbol(                 // Check for a Symbol XHDR
      ScanData.CompositeFinalResult                                             // matching this result.
    );

    if(0 < SH.length()) {                                                       // If we have an XHDR for this
        O << SH                                                                 // result then emit the header.
          << SMTPENDL;
    }

    ScanData.XHDRsText = O.str();                                               // Save the formatted XHeaders.
}

void snfLOGmgr::doXMLLogs(snfCFGData& CFGData, snfScanData& ScanData) {         // XML sub routine for LogThisScan()

    std::ostringstream O;                                                       // Set up the output stream.
    bool WeHaveSubordinates = false;                                            // Expect no subordinates at first.

    // We do the match sections together because it allows us to scan through
    // the match results once and pick up the final result for the <s/> section.
    // This way, even if no <m/>atch elements are emitted we will have the
    // final result without having to scan the data twice.

    // <s/> -- Scan Log Entry (always on if modes is not none)
    // <m/> -- Scan Match Entry (controlled by matches attribute)
    std::ostringstream R;                                                       // Match (R)ecords output.

    std::set<int> Duplicates;                                                   // Set up to track duplicates.
    std::list<snf_match>::iterator MatchRecordsCursor;                          // Set up a cursor to the results.
    for(
      MatchRecordsCursor = ScanData.MatchRecords.begin();                       // Loop through the scan results
      MatchRecordsCursor != ScanData.MatchRecords.end();
      MatchRecordsCursor++
      ) {
        snf_match& M = (*MatchRecordsCursor);                                   // Grab the current match record.
        if(
          ScanLogMatches_None != CFGData.Scan_XML_Matches &&                    // If match records are requested
          ('f' != M.flag && 'c' != M.flag)                                      // and this record is not the (f)inal
          ) {                                                                   // then evaluate it and log (??) it.
            if(ScanLogMatches_Unique == CFGData.Scan_Classic_Matches) {         // If only unique matches are required
                if(Duplicates.end() != Duplicates.find(M.ruleid)) {             // check for a duplicate rule id.
                    continue;                                                   // If the rule id was found then skip.
                } else {                                                        // If the rule id was not found then
                    Duplicates.insert(M.ruleid);                                // remember it for next time.
                }
            }

            // At this point we've skipped duplicate match records, but we
            // still want to emit some (all?) of them so it's time to do it.

            // <m s='48' r='1234567' i='2394' e='2409' f='m'/>

            R << "\t<m "
              << "s=\'" << M.symbol << "\' "
              << "r=\'" << M.ruleid << "\' "
              << "i=\'" << M.index << "\' "
              << "e=\'" << M.endex << "\' "
              << "f=\'" << M.flag << "\'/>"
              << std::endl;

        } else
        if('f' == M.flag || 'c' == M.flag) {                                    // If this record is final, emit it!

            WeHaveSubordinates = (
                ((ScanLogMatches_None != CFGData.Scan_XML_Matches)
                  && ('f' == M.flag)) ||
                (true == CFGData.Scan_XML_GBUdb) ||
                (true == CFGData.Scan_XML_Performance)
            );

            // <s u='20070508012349' m='msg0123456789.msg' s='48' r='1234567' >

            O << "<s "                                                          // Format the <s>can element
              << "u=\'" << Timestamp(ScanData.StartOfJobUTC) << "\' "
              << "m=\'" << ScanData.ScanName << "\' "
              << "s=\'" << M.symbol << "\' "
              << "r=\'" << M.ruleid << "\'"
              << ((WeHaveSubordinates)? ">" : "/>")
              << std::endl;
        }
    }

    if(ScanLogMatches_None != CFGData.Scan_XML_Matches) O << R.str();           // Emit the match records if any.

    // <p/> -- Scan Performance Monitoring (performance='yes')
    // <p s='10' t='8' l='3294' d='84'/>

    if(CFGData.Scan_XML_Performance) {                                          // Post performance data if needed.
        O << "\t<p "
          << "s=\'" << ScanData.SetupTime << "\' "
          << "t=\'" << ScanData.ScanTime.getElapsedTime() << "\' "
          << "l=\'" << ScanData.ScanSize << "\' "
          << "d=\'" << ScanData.ScanDepth << "\'/>"
          << std::endl;
    }

    // <g/> -- GBUdb Activity For This Scan (gbudb='yes')
    // <g o='1' i='101.201.31.04'  t='u'  c='0.12345' p='0.3342983'  r='Caution'/>

    if(CFGData.Scan_XML_GBUdb && ScanData.FoundSourceIP()) {                    // Post gbudb data if needed & ready.
        O << "\t<g "
          << "o=\'" << ScanData.SourceIPRecord().Ordinal << "\' "
          << "i=\'" << (std::string) cd::IP4Address(ScanData.SourceIPRecord().IP) << "\' "
          << "t=\'" <<
            ((Ugly == ScanData.SourceIPRecord().GBUdbData.Flag())? "u" :
              ((Good == ScanData.SourceIPRecord().GBUdbData.Flag())? "g" :
                ((Bad == ScanData.SourceIPRecord().GBUdbData.Flag())? "b" : "i")))
            << "\' "
          << "c=\'" << ScanData.SourceIPRecord().GBUdbData.Confidence() << "\' "
          << "p=\'" << ScanData.SourceIPRecord().GBUdbData.Probability() << "\' "
          << "r=\'" <<
            ((snfIPRange::Unknown == ScanData.SourceIPRange())? "Unknown" :
              ((snfIPRange::White == ScanData.SourceIPRange())? "White" :
                ((snfIPRange::Normal == ScanData.SourceIPRange())? "Normal" :
                  ((snfIPRange::New == ScanData.SourceIPRange())? "New" :
                    ((snfIPRange::Caution == ScanData.SourceIPRange())? "Caution" :
                      ((snfIPRange::Black == ScanData.SourceIPRange())? "Black" :
                        ((snfIPRange::Truncate == ScanData.SourceIPRange())? "Truncate" :
                          "Fault")))))))
            << "\'/>"
          << std::endl;
    }

    // If this wasn't a one-liner then we need to close the <s/> element

    if(WeHaveSubordinates) O << "</s>" << std::endl;                                 // If <s> was open then close it.

    ScanData.XMLLogText = O.str();                                              // Save the formatted log text.

    // Now that we've produced the appropriate log entries let's send them
    // out to the log file.

    if(LogOutputMode_File == CFGData.Scan_XML_Mode) {                           // If we are writing to file,
        std::string TFN = CFGData.paths_log_path;                               // build an appropriate log file
        TFN.append(CFGData.node_licenseid);                                     // name.
        if(CFGData.Scan_XML_Rotate) {                                           // If we're rotating per day:
            TFN.append(".");                                                    // Put a timestamp on the file name.
            if(Rotate_LocalTime) { LocalTimestamp(TFN); }                       // Use either the local timestamp or
            else { Timestamp(TFN); }                                            // the utc timestamp as configured.
            TFN = TFN.substr(0, TFN.length() - 6);                              // Stip off the Hours, Minutes, Seconds.
        }
        TFN.append(".log.xml");                                                 // Tack on the extension.

        XMLScanLogger.post(ScanData.XMLLogText, TFN);                           // Post the log with the file name.
    }
}

void snfLOGmgr::doClassicLogs(snfCFGData& CFGData, snfScanData& ScanData) {     // Classic sub routine for LogThisScan()
    std::ostringstream O;                                                       // Set up the output stream.

    std::set<int> Duplicates;                                                   // Set up to track duplicates.
    std::list<snf_match>::iterator MatchRecordsCursor;                          // Set up a cursor to the results.
    for(
      MatchRecordsCursor = ScanData.MatchRecords.begin();                       // Loop through the scan results
      MatchRecordsCursor != ScanData.MatchRecords.end();
      MatchRecordsCursor++
      ) {
        snf_match& M = (*MatchRecordsCursor);                                   // Grab the current match record.
        if(
          ScanLogMatches_None != CFGData.Scan_Classic_Matches &&                // If match records are requested
          ('f' != M.flag && 'c' != M.flag)                                      // and this record is not the (f)inal
          ) {                                                                   // then evaluate it and log (??) it.
            if(ScanLogMatches_Unique == CFGData.Scan_Classic_Matches) {         // If only unique matches are required
                if(Duplicates.end() != Duplicates.find(M.ruleid)) {             // check for a duplicate rule id.
                    continue;                                                   // If the rule id was found then skip.
                } else {                                                        // If the rule id was not found then
                    Duplicates.insert(M.ruleid);                                // remember it for next time.
                }
            }

            // At this point we've skipped duplicate match records, but we
            // still want to emit some (all?) of them so it's time to do it.

            O << CFGData.node_licenseid << "\t"
              << Timestamp(ScanData.StartOfJobUTC) << "\t"
              << ScanData.ScanName << "\t"
              << ScanData.SetupTime << "\t"
              << ScanData.ScanTime.getElapsedTime() << "\t"
              << (('m' == M.flag) ? "Match\t" :
                   (('w' == M.flag) ? "White\t" :
                     (('p' == M.flag) ? "Panic\t" : "Fault\t")))
              << M.ruleid << "\t"
              << M.symbol << "\t"
              << M.index << "\t"
              << M.endex << "\t"
              << ScanData.ScanDepth
              << std::endl;

        } else {                                                                // If this record is final, emit it!
            O << CFGData.node_licenseid << "\t"
              << Timestamp(ScanData.StartOfJobUTC) << "\t"
              << ScanData.ScanName << "\t"
              << ScanData.SetupTime << "\t"
              << ScanData.ScanTime.getElapsedTime() << "\t"
              << (('f' == M.flag) ? "Final\t" :
                   (('c' == M.flag) ? "Clean\t" : "Fault\t"))
              << M.ruleid << "\t"
              << M.symbol << "\t"
              << M.index << "\t"
              << M.endex << "\t"
              << ScanData.ScanDepth
              << std::endl;
        }
    }

    ScanData.ClassicLogText = O.str();                                          // Save the formatted log text.

    // Now that we've produced the appropriate log entries let's send them
    // out to the log file.

    if(LogOutputMode_File == CFGData.Scan_Classic_Mode) {                       // If we are writing to file,
        std::string TFN = CFGData.paths_log_path;                               // build an appropriate log file
        TFN.append(CFGData.node_licenseid);                                     // name.
        if(CFGData.Scan_Classic_Rotate) {                                       // If we're rotating per day:
            TFN.append(".");                                                    // Put a timestamp on the file name.
            if(Rotate_LocalTime) { LocalTimestamp(TFN); }                       // Use either the local timestamp or
            else { Timestamp(TFN); }                                            // the utc timestamp as configured.
            TFN = TFN.substr(0, TFN.length() - 6);                              // Stip off the Hours, Minutes, Seconds.
        }
        TFN.append(".log");                                                     // Tack on the extension.

        ClassicScanLogger.post(ScanData.ClassicLogText, TFN);                   // Post the log with the file name.
    }
}

//// LogThisScan() is broken into two sections. The first section happens with
//// the snfLOGmgr mutex locked and must happen as quickly as possible so that
//// the chance for contention over those resources is minimized. This amounts
//// to some raw CPU work adjusting counters and so forth.
////
//// The second section handles any additional work such as formatting log
//// entries. Essentially, anything that doesn't NEED to happen while the mutex
//// is locked should happen in the second section.
////
//// The two subroutines for LogThisScan are:
//// captureLTSMetrics() -- Mutex locked, first section
//// performLTSLogging() -- Mutex NOT locked, second section

void snfLOGmgr::captureLTSMetrics(snfCFGData& CFGData, snfScanData& ScanData) { // LogThisScan section 1
    cd::ScopeMutex FreezeRightThereWhileITakeThisPicture(MyMutex);              // Lock the object for this update.

    if(Status.LatestRuleID < ScanData.PatternID) {                              // If we have a new latest rule id
        Status.LatestRuleID = ScanData.PatternID;                               // then capture it.
    }

    // keep histograms---

    // Second, Minute, and Hour histograms are reset() by the appropriate
    // reporting functions. That is, when a Second report is made, the Second
    // histograms are reset; likewise Minutes and Hours. As a result we simply
    // hit them all the same way when we log a scan.

    ResultsSecond.hit(ScanData.CompositeFinalResult);                           // Histogram the result codes.
    ResultsMinute.hit(ScanData.CompositeFinalResult);
    ResultsHour.hit(ScanData.CompositeFinalResult);

    if(ScanData.PatternWasFound) {                                              // Histogram pattern IDs.
        RulesSecond.hit(ScanData.PatternID);
        RulesMinute.hit(ScanData.PatternID);
        RulesHour.hit(ScanData.PatternID);
    }

    if(0 < ScanData.RulePanics.size()) {                                        // Histogram any rule panic hits.
        std::set<int>::iterator iP;
        for(                                                                    // Dump the set of rule panic
          iP = ScanData.RulePanics.begin();                                     // IDs from beginning to end
          iP != ScanData.RulePanics.end();                                      // into our histogram set.
          iP++) {
            PanicsSecond.hit((*iP));
            PanicsMinute.hit((*iP));
            PanicsHour.hit((*iP));
        }
    }

    // count up these things---

    ++(*CurrentCounters).Events.Scans;                                          // Number of messages scanned.

    const int HamResult = 0;                                                    // A result of 0 is "clean" or "white"
    if(                                                                         // If we have identified Ham
      HamResult == ScanData.CompositeFinalResult ||                             // either by the conventional result or
      CFGData.TrainingWhiteRuleHandler.isListed(ScanData.CompositeFinalResult)  // some known white-rule symbol
      ) {
        ++(*CurrentCounters).Events.Ham;                                        // then we will bump the Ham counter.
    } else {                                                                    // For any other result we will bump
        ++(*CurrentCounters).Events.Spam;                                       // the spam counter.
    }

    if(ScanData.GBUdbNormalTriggered) {                                         // Count of GBUdb indetermineta IPs.
        ++(*CurrentCounters).Events.GBUdbNormalTriggered;
    }

    if(ScanData.GBUdbWhiteTriggered) {                                          // Count of GBUdb found source IP white.
        ++(*CurrentCounters).Events.GBUdbWhiteTriggered;
    }
    if(ScanData.GBUdbWhiteSymbolForced) {                                       // Count of white was on and symbol was set.
        ++(*CurrentCounters).Events.GBUdbWhiteSymbolForced;
    }
    if(ScanData.GBUdbPatternSourceConflict) {                                   // Count of pattern was found with white IP.
        ++(*CurrentCounters).Events.GBUdbPatternSourceConflict;
    }
    if(ScanData.GBUdbAutoPanicTriggered) {                                      // Count of autopanic was triggered.
        ++(*CurrentCounters).Events.GBUdbAutoPanicTriggered;
    }
    if(ScanData.GBUdbAutoPanicExecuted)  {                                      // Count of an autopanic was added.
        ++(*CurrentCounters).Events.GBUdbAutoPanicExecuted;
    }

    if(ScanData.GBUdbBlackTriggered)  {                                         // Count of GBUdb found source IP black.
        ++(*CurrentCounters).Events.GBUdbBlackTriggered;
    }
    if(ScanData.GBUdbBlackSymbolForced)  {                                      // Count of black was on and symbol was set.
        ++(*CurrentCounters).Events.GBUdbBlackSymbolForced;
    }
    if(ScanData.GBUdbTruncateTriggered)  {                                      // Count of Truncate was possible.
        ++(*CurrentCounters).Events.GBUdbTruncateTriggered;
    }
    if(ScanData.GBUdbPeekTriggered)  {                                          // Count of we could peek.
        ++(*CurrentCounters).Events.GBUdbPeekTriggered;
    }
    if(ScanData.GBUdbSampleTriggered) {                                         // Count of we could sample.
        ++(*CurrentCounters).Events.GBUdbSampleTriggered;
    }
    if(ScanData.GBUdbTruncateExecuted) {                                        // Count of if we actually did truncate.
        ++(*CurrentCounters).Events.GBUdbTruncateExecuted;
    }
    if(ScanData.GBUdbPeekExecuted) {                                            // Count of we peeked instead of truncating.
        ++(*CurrentCounters).Events.GBUdbPeekExecuted;
    }
    if(ScanData.GBUdbSampleExecuted) {                                          // Count of we sampled.
        ++(*CurrentCounters).Events.GBUdbSampleExecuted;
    }

    if(ScanData.GBUdbCautionTriggered) {                                        // Count of GBUdb found source IP suspicous.
        ++(*CurrentCounters).Events.GBUdbCautionTriggered;
    }
    if(ScanData.GBUdbCautionSymbolForced) {                                     // Count of caution was on and symbol was set.
        ++(*CurrentCounters).Events.GBUdbCautionSymbolForced;
    }

    if(ScanData.PatternWasFound) {                                              // Count of scanner matches.
        ++(*CurrentCounters).Events.PatternWasFound;
    }

    if(0 < ScanData.RulePanics.size()) {                                        // Count of rule panics.
        ++(*CurrentCounters).Events.RulePanicFound;
    }
}

void snfLOGmgr::performLTSLogging(snfCFGData& CFGData, snfScanData& ScanData) { // LogThisScan section 2
    // Build X- Headers, XML Log, and Classic Log as needed...

    if(LogOutputMode_None != CFGData.XHDROutput_Mode) {                         // If XHeaders are turned on then
        doXHDRs(CFGData, ScanData);                                             // call the XHeaders subroutine.
    }

    if(LogOutputMode_None != CFGData.Scan_XML_Mode) {                           // If XML scan logs are turned on then
        doXMLLogs(CFGData, ScanData);                                           // call the XML scan log subroutine.
    }

    if(LogOutputMode_None != CFGData.Scan_Classic_Mode) {                       // If Classic scan logs are turned on
        doClassicLogs(CFGData, ScanData);                                       // then call the Classic log subroutine.
    }
}

void snfLOGmgr::logThisScan(snfCFGData& CFGData, snfScanData& ScanData) {       // How to log a scan event...
    captureLTSMetrics(CFGData, ScanData);                                       // Lock the mutex and do the math.
    performLTSLogging(CFGData, ScanData);                                       // Unlock the mutex and write it down.
    if(0 < ScanData.XHDRsText.length()) {                                       // If we have XHeader data then
        switch(CFGData.XHDROutput_Mode) {                                       // set the appropriate output mode.
            case LogOutputMode_Inject: ScanData.XHeaderInjectOn = true; break;  // We will either inject the headers
            case LogOutputMode_File:   ScanData.XHeaderFileOn = true; break;    // or we will create a .xhdr file.
        }                                                                       // The actual inject/file operation
    }                                                                           // happens in ScanMessageFile().
    ScanData.ReadyToClear = true;                                               // This can be cleared now once
}                                                                               // the ScanData has been consumed.

// logThisError(CFGData, ScanData) - for scanning errors (message context)

void snfLOGmgr::logThisError(snfScanData& ScanData, const std::string ContextName,  // Inject an error log entry for this
  const int Code, const std::string Text                                            // scan using this number & message.
  ) {

    // Check for each type of log and create an appropriate entry for
    // each log type that is activated in the configuration.

    //// Handle XML Log Scan Error Reports

    if(LogOutputMode_None != XML_Log_Mode) {                                    // If XML logs are on emit the error.

        // Produce Error Log Entry and store in XMLLogText

        std::stringstream O;                                                    // Stringstream for formatting.

        O << "<e "                                                              // Format the <s>can error element
          << "u=\'" << Timestamp(ScanData.StartOfJobUTC) << "\' "
          << "context=\'" << ContextName << "\' "
          << "m=\'" << ScanData.ScanName << "\' "
          << "code=\'" << Code << "\' "
          << "text=\'" << Text << "\'"
          << "/>"
          << std::endl;

        ScanData.XMLLogText = O.str();                                          // Save the formatted log text.

        // Now that we've produced the appropriate log entries let's send them
        // out to the log file.

        if(LogOutputMode_File == XML_Log_Mode) {                                // If we are writing to file,
            std::string TFN = LogsPath;                                         // build an appropriate log file
            TFN.append(NodeId);                                                 // name.
            if(XMLLogRotate) {                                                  // If we're rotating per day:
                TFN.append(".");                                                // Put a timestamp on the file name.
                if(Rotate_LocalTime) { LocalTimestamp(TFN); }                   // Use either the local timestamp or
                else { Timestamp(TFN); }                                        // the utc timestamp as configured.
                TFN = TFN.substr(0, TFN.length() - 6);                          // Stip off the Hours, Minutes, Seconds.
            }
            TFN.append(".log.xml");                                             // Tack on the extension.

            XMLScanLogger.post(ScanData.XMLLogText, TFN);                       // Post the log with the file name.
        }
    }

    //// Handle Clasic Log Scan Error Reports

    if(LogOutputMode_None != Classic_Log_Mode) {                                // If Classic logs are on emit the error.

        // Produce an appropriate Error log entry in ClassicLogText

        std::stringstream O;                                                    // Stringstream for formatting.

            O << NodeId << "\t"                                                 // Format the scan error entry.
              << Timestamp(ScanData.StartOfJobUTC) << "\t"
              << ScanData.ScanName << "\t"
              << ScanData.SetupTime << "\t"
              << ScanData.ScanTime.getElapsedTime() << "\t"
              << Text << "\t"
              << "0\t"
              << Code << "\t"
              << "0\t"
              << ScanData.ScanSize << "\t"
              << ScanData.ScanDepth
              << std::endl;

        ScanData.ClassicLogText = O.str();                                      // Save the formatted log text.

        // Now that we've produced the appropriate log entries let's send them
        // out to the log file.

        if(LogOutputMode_File == Classic_Log_Mode) {                            // If we are writing to file,
            std::string TFN = LogsPath;                                         // build an appropriate log file
            TFN.append(NodeId);                                                 // name.
            if(ClassicLogRotate) {                                              // If we're rotating per day:
                TFN.append(".");                                                // Put a timestamp on the file name.
                if(Rotate_LocalTime) { LocalTimestamp(TFN); }                   // Use either the local timestamp or
                else { Timestamp(TFN); }                                        // the utc timestamp as configured.
                TFN = TFN.substr(0, TFN.length() - 6);                          // Stip off the Hours, Minutes, Seconds.
            }
            TFN.append(".log");                                                 // Tack on the extension.

            ClassicScanLogger.post(ScanData.ClassicLogText, TFN);               // Post the log with the file name.
        }
    }
}

// logThisIPTest w/ Action

void snfLOGmgr::logThisIPTest(IPTestRecord& I, std::string Action) {            // Log an IPTest and action.
    if(!Configured) return;                                                     // Do nothing if not configured.
    std::stringstream O;                                                        // Stringstream to format the entry.
    std::string tmp;                                                            // String for use getting timestamp.

    O << "<t "
      << "u=\'" << Timestamp(tmp) << "\' "
      << "ip=\'" << (std::string) I.IP << "\' "
      << "t=\'" <<
        ((Ugly == I.G.Flag())? "u" :
          ((Good == I.G.Flag())? "g" :
            ((Bad == I.G.Flag())? "b" : "i")))
        << "\' "
      << "g=\'" << I.G.Good() << "\' "
      << "b=\'" << I.G.Bad() << "\' "
      << "c=\'" << I.G.Confidence() << "\' "
      << "p=\'" << I.G.Probability() << "\' "
      << "r=\'" <<
        ((snfIPRange::Unknown == I.R)? "Unknown" :
          ((snfIPRange::White == I.R)? "White" :
            ((snfIPRange::Normal == I.R)? "Normal" :
              ((snfIPRange::New == I.R)? "New" :
                ((snfIPRange::Caution == I.R)? "Caution" :
                  ((snfIPRange::Black == I.R)? "Black" :
                    ((snfIPRange::Truncate == I.R)? "Truncate" :
                      "Fault")))))))
        << "\' "
      << "a=\'" << Action << "\'"
      << "/>" << std::endl;

    XMLScanLogger.post(O.str());                                                // Post the log, use existing path.
}

// logThisError(Context, Code, Text) - for non-message errors.

void snfLOGmgr::logThisError(
  std::string ContextName, int Code, std::string Text) {                        // Log an error message.
    if(!Configured) return;                                                     // Do nothing if not configured.
    cd::ScopeMutex LockCFG(MyMutex);                                            // Don't change CFG. I'm using it!
    if(LogOutputMode_File == XML_Log_Mode) {                                    // If XML logs are turned on:
        std::stringstream O;                                                    // Stringstream to format the entry.
        std::string tmp;                                                        // String for use getting timestamp.

        O << "<e "                                                              // Format an <e/>rror element.
          << "u=\'" << Timestamp(tmp) << "\' "
          << "context=\'" << ContextName << "\' "
          << "code=\'" << Code << "\' "
          << "text=\'" << Text << "\'/>"
          << std::endl;

        // Now that we've produced the appropriate log entries let's send them
        // out to the log file.

        std::string TFN = LogsPath;                                             // build an appropriate log file
        TFN.append(NodeId);                                                     // name.
        if(XMLLogRotate) {                                                      // If we're rotating per day:
            TFN.append(".");                                                    // Put a timestamp on the file name.
            if(Rotate_LocalTime) { LocalTimestamp(TFN); }                       // Use either the local timestamp or
            else { Timestamp(TFN); }                                            // the utc timestamp as configured.
            TFN = TFN.substr(0, TFN.length() - 6);                              // Stip off the Hours, Minutes, Seconds.
        }
        TFN.append(".log.xml");                                                 // Tack on the extension.

        XMLScanLogger.post(O.str(), TFN);                                       // Post the log with the file name.
    }
    if(LogOutputMode_File == Classic_Log_Mode) {                                // If Classic logs are turned on:
        std::stringstream O;                                                    // Stringstream to format the entry.
        std::string tmp;                                                        // String for use getting timestamp.

        O << NodeId << "\t"                                                     // Format the error entry.
          << Timestamp(tmp) << "\t"
          << ContextName << "\t"
          << "0\t"
          << "0\t"
          << Text << "\t"
          << "0\t"
          << Code << "\t"
          << "0\t"
          << "0\t"
          << "0\t"
          << std::endl;

        // Now that we've produced the appropriate log entries let's send them
        // out to the log file.

        std::string TFN = LogsPath;                                             // build an appropriate log file
        TFN.append(NodeId);                                                     // name.
        if(ClassicLogRotate) {                                                  // If we're rotating per day:
            TFN.append(".");                                                    // Put a timestamp on the file name.
            if(Rotate_LocalTime) { LocalTimestamp(TFN); }                       // Use either the local timestamp or
            else { Timestamp(TFN); }                                            // the utc timestamp as configured.
            TFN = TFN.substr(0, TFN.length() - 6);                              // Stip off the Hours, Minutes, Seconds.
        }
        TFN.append(".log");                                                     // Tack on the extension.

        ClassicScanLogger.post(O.str(), TFN);                                   // Post the log with the file name.
    }
}

// logThisInfo(Context, Code, Text) - for generic non-errors.

void snfLOGmgr::logThisInfo(
  std::string ContextName, int Code, std::string Text) {                        // Log an informational message.
    if(!Configured) return;                                                     // Do nothing if not configured.
    cd::ScopeMutex LockCFG(MyMutex);                                            // Don't change CFG. I'm using it!
    if(LogOutputMode_File == XML_Log_Mode) {                                    // If XML logs are turned on:
        std::stringstream O;                                                    // Stringstream to format the entry.
        std::string tmp;                                                        // String for use getting timestamp.

        O << "<i "                                                              // Format an <i/>nfo element.
          << "u=\'" << Timestamp(tmp) << "\' "
          << "context=\'" << ContextName << "\' "
          << "code=\'" << Code << "\' "
          << "text=\'" << Text << "\'/>"
          << std::endl;

        // Now that we've produced the appropriate log entries let's send them
        // out to the log file.

        std::string TFN = LogsPath;                                             // build an appropriate log file
        TFN.append(NodeId);                                                     // name.
        if(XMLLogRotate) {                                                      // If we're rotating per day:
            TFN.append(".");                                                    // Put a timestamp on the file name.
            if(Rotate_LocalTime) { LocalTimestamp(TFN); }                       // Use either the local timestamp or
            else { Timestamp(TFN); }                                            // the utc timestamp as configured.
            TFN = TFN.substr(0, TFN.length() - 6);                              // Stip off the Hours, Minutes, Seconds.
        }
        TFN.append(".log.xml");                                                 // Tack on the extension.

        XMLScanLogger.post(O.str(), TFN);                                       // Post the log with the file name.
    }
    if(LogOutputMode_File == Classic_Log_Mode) {                                // If Classic logs are turned on:
        std::stringstream O;                                                    // Stringstream to format the entry.
        std::string tmp;                                                        // String for use getting timestamp.

        O << NodeId << "\t"                                                     // Format the informational entry.
          << Timestamp(tmp) << "\t"
          << ContextName << "\t"
          << "0\t"
          << "0\t"
          << Text << "\t"
          << "0\t"
          << Code << "\t"
          << "0\t"
          << "0\t"
          << "0\t"
          << std::endl;

        // Now that we've produced the appropriate log entries let's send them
        // out to the log file.

        std::string TFN = LogsPath;                                             // build an appropriate log file
        TFN.append(NodeId);                                                     // name.
        if(ClassicLogRotate) {                                                  // If we're rotating per day:
            TFN.append(".");                                                    // Put a timestamp on the file name.
            if(Rotate_LocalTime) { LocalTimestamp(TFN); }                       // Use either the local timestamp or
            else { Timestamp(TFN); }                                            // the utc timestamp as configured.
            TFN = TFN.substr(0, TFN.length() - 6);                              // Stip off the Hours, Minutes, Seconds.
        }
        TFN.append(".log");                                                     // Tack on the extension.

        ClassicScanLogger.post(O.str(), TFN);                                   // Post the log with the file name.
    }
}

std::string snfLOGmgr::PlatformVersion(std::string NewPlatformVersion) {        // Set platform version info.
    cd::ScopeMutex FreezeForNewData(MyMutex);                                   // Get the ball and
    myPlatformVersion = NewPlatformVersion;                                     // set the data.
    return myPlatformVersion;                                                   // return the new data.
}

std::string snfLOGmgr::PlatformVersion() {                                      // Get platform version info.
    cd::ScopeMutex DontChangeOnMe(MyMutex);                                     // Get the ball and
    return myPlatformVersion;                                                   // get the data.
}

std::string snfLOGmgr::EngineVersion() {                                        // Get engine version info.
    return std::string(SNF_ENGINE_VERSION);                                     // Return the engine version string.
}

//// The caller to getSpamshot promises to reset() the counters when it is done
//// with the data and before getSnapshot() gets called again.

snfCounterPack* snfLOGmgr::getSnapshot() {                                      // Get a copy of the current counters.
    snfCounterPack* Snapshot = CurrentCounters;                                 // Grab the active counters.
    CurrentCounters = ReportingCounters;                                        // Swap the reporting counters in.
    CurrentCounters->ActiveTime.start(Snapshot->ActiveTime.stop());             // (De)Activate the activity timers.
    ReportingCounters = Snapshot;                                               // Put the old ActiveCounters into
    return Snapshot;                                                            // reporting mode and return a ptr.
}

bool snfLOGmgr::OkToPeek(int PeekOneInX) {                                      // Test to see if it's ok to peek.
    cd::ScopeMutex JustMe(PeekMutex);                                           // Protect the peek enable counter.
    ++PeekEnableCounter;                                                        // Bump the counter by one.
    if(PeekEnableCounter >= PeekOneInX) {                                       // If we've made the threshold then
        PeekEnableCounter = 0;                                                  // reset the counter and
        return true;                                                            // return true.
    }                                                                           // If not then
    return false;                                                               // return false.
}

bool snfLOGmgr::OkToSample(int SampleOneInX) {                                  // Test to see if it's ok to sample.
    cd::ScopeMutex JustMe(SampleMutex);                                         // Protect the sample enable counter.
    ++SampleEnableCounter;                                                      // Bump the counter by one.
    if(SampleEnableCounter >= SampleOneInX) {                                   // If we've made the threshold then
        SampleEnableCounter = 0;                                                // reset the counter and
        return true;                                                            // return true.
    }                                                                           // If not then return
    return false;                                                               // false.
}

time_t snfLOGmgr::Timestamp() {                                                 // Get an ordinary timestamp.
    time_t rawtime;
    rawtime = time(NULL);
    return rawtime;
}

std::string snfLOGmgr::Timestamp(time_t t) {                                    // Convert time_t to a timestamp s.
    std::stringstream TimestampBfr;
    const std::string EmptyTimestamp = "00000000000000";
    std::string theTimeStamp = EmptyTimestamp;
    tm* gmt;                                                                    // Get a ptr to a tm structure.
    gmt = gmtime(&t);                                                           // Fill it with UTC.
    bool isValidGMT = (0 != gmt);
    if(isValidGMT) {
        TimestampBfr
          << std::setw(4) << (gmt->tm_year+1900)
          << std::setw(2) << std::setfill('0') << (gmt->tm_mon+1)
          << std::setw(2) << std::setfill('0') << (gmt->tm_mday)
          << std::setw(2) << std::setfill('0') << (gmt->tm_hour)
          << std::setw(2) << std::setfill('0') << (gmt->tm_min)
          << std::setw(2) << std::setfill('0') << (gmt->tm_sec)
          ;
        theTimeStamp = TimestampBfr.str();
    }
    return theTimeStamp;                                                        // Return a string.
}


std::string& snfLOGmgr::Timestamp(std::string& s) {                             // Returns a current timestamp in s.
   s.append(Timestamp(Timestamp()));                                            // Append the timestamp to s and
   return s;                                                                    // return it.
}

cd::RuntimeCheck LocalTimestampGoodTimestampLength("snfLOGmgr.cpp:LocalTimestamp snprintf(...) == CorrectTimestampLength");

std::string snfLOGmgr::LocalTimestamp(time_t t) {                               // Convert time_t to a local timestamp s.
    char TimestampBfr[16];                                                      // Create a small buffer.
    tm* localt;                                                                 // Get a ptr to a tm structure.
    localt = localtime(&t);                                                     // Fill it with local time.

    size_t l = snprintf(                                                        // Format yyyymmddhhmmss
      TimestampBfr, sizeof(TimestampBfr),
      "%04d%02d%02d%02d%02d%02d",
      localt->tm_year+1900,
      localt->tm_mon+1,
      localt->tm_mday,
      localt->tm_hour,
      localt->tm_min,
      localt->tm_sec
    );

    const size_t CorrectTimestampLength = 4+2+2+2+2+2;
    LocalTimestampGoodTimestampLength(l == CorrectTimestampLength);

    return std::string(TimestampBfr);                                           // Return a string.
}

std::string& snfLOGmgr::LocalTimestamp(std::string& s) {                        // Returns a local timestamp in s.
   s.append(LocalTimestamp(Timestamp()));                                       // Append the timestamp to s and
   return s;                                                                    // return it.
}

unsigned int snfLOGmgr::SerialNumber() {                                        // Returns the next serial number.
    cd::ScopeMutex AtomicOperation(SerialNumberMutex);                          // Lock the serial number mutex.
    ++Status.SerialNumberCounter;                                               // Increment the serial number.
    unsigned int result = Status.SerialNumberCounter;                           // Capture the new value.
    return result;                                                              // Return the unique result.
}

std::string& snfLOGmgr::SerialNumber(std::string& s) {                          // Appends the next serial number.
    char SerialNumberBuffer[9];                                                 // 8 hex digits and a null terminator.
    sprintf(                                                                    // Format the serial number and
      SerialNumberBuffer,                                                       // place it into the buffer.
      "%08X", SerialNumber()
    );
    s.append(SerialNumberBuffer);                                               // Append the buffer to s.
    return s;                                                                   // Return s.
}

// Persistent State Functions
// The Persistent State object is slightly smart. It won't try to restore
// itself from disk if it has already been restored. It won't write itself
// to disk unless it was first loaded or there was no original file to load.
// This leaves open the possibility that a disk problem when opening the
// engine could cause a persistent state problem - but the alternative is to
// have the persistent state unprotected. If there is a problem, then clearing
// the problem and re-opening the engine will load the persistent state. If
// that's not the best solution then it's always possible to destroy the
// existing persistent state and start over -- at least then it will be a
// conscious decision and not a "side effect"

void snfLOGPersistentState::store(std::string& FileNameToStore) {               // Write the whole thing to a file.
    if(Ready) {                                                                 // If it is safe to overwrite then
        try {                                                                   // Try... to
            std::ofstream P(
              FileNameToStore.c_str(), std::ios::trunc | std::ios::binary);     // Open and overwrite the file and

            P.write((char*)this, sizeof(snfLOGPersistentState));                // store our bytes in binary format.
            P.close();
        } catch (...) {}                                                        // Ignore any errors for now.
    }
}

void snfLOGPersistentState::restore(std::string& FileNameToRestore) {           // Read the whole thing from a file.
    if(!Ready) {                                                                // If we have not already loaded...
        if(0 > access(FileNameToRestore.c_str(), R_OK)) {                       // If the file cannot be read we
            Ready = true;                                                       // will assume it doesn't exist and
        }                                                                       // set our Ready flag to allow writing.
        else {                                                                  // If the file does exist we load it.
            try {                                                               // Try this...
                std::ifstream P(FileNameToRestore.c_str(), std::ios::binary);   // Create a binary input stream and
                P.read((char*)this, sizeof(snfLOGPersistentState));             // read the bytes into this object.
                P.close();                                                      // Then, close the file.
                Ready = true;                                                   // Set the Ready flag to allow writes.
            } catch(...) {}                                                     // Ignore any errors for now.
        }
    }
}

// 20090730_M - Moved persistent state aux saves to RecordSyncEvent. It makes
// sense for the persistent state to match the latext external record of state
// info. If SNFServer dies uncerimoneusly that is what we will remember.

int snfLOGmgr::SecsSinceStartup() {
    return (int) difftime(Timestamp(), StartupTime);
}

void snfLOGmgr::RecordSyncEvent() {                                             // Sets timestamp of latest Sync.
    Status.LastSyncTime = Timestamp();                                          // Set the Sync time.
    if(Configured) Status.store(PersistentFileName);                            // Store our persistent data.
}

int snfLOGmgr::SecsSinceLastSync() {                                            // Gets seconds since latest Sync.
    return (int) difftime(Timestamp(), Status.LastSyncTime);
}

void snfLOGmgr::RecordSaveEvent() {                                             // Sets timestamp of latest Save.
    Status.LastSaveTime = Timestamp();
}

int snfLOGmgr::SecsSinceLastSave() {                                            // Gets seconds since latest Save.
    return (int) difftime(Timestamp(), Status.LastSaveTime);
}

void snfLOGmgr::RecordCondenseEvent() {                                         // Sets timestamp of latest Condense.
    Status.LastCondenseTime = Timestamp();
}

int snfLOGmgr::SecsSinceLastCondense() {                                        // Gets seconds since latest Condense.
    return (int) difftime(Timestamp(), Status.LastCondenseTime);
}

// Data in the multi-range sliding window is tracked in circular buffers.
// The snf_SMHDMY_Counter::do_input() function encapsuates the input operation.

bool snf_SMHDMY_Counter::do_input(                                              // Subroutine for new data input.
  int X,                                                                        // Given new data X,
  int& SUM,                                                                     // the SUM being tracked,
  int* DATA,                                                                    // the array of DATA,
  int& ORDINAL,                                                                 // the current ORDINAL,
  int SIZE) {                                                                   // and the SIZE of the array...

    SUM -= DATA[ORDINAL];                                                       // Subtract the old data from the
    SUM += (DATA[ORDINAL] = X);                                                 // SUM and replace it with X.
    ++ORDINAL;                                                                  // Move to the next slot and
    if(SIZE <= ORDINAL) ORDINAL = 0;                                            // rotate back around if needed.

  return (0 == ORDINAL);                                                        // Return true if time to carry.
}

void snf_SMHDMY_Counter::input(int X) {

    if(do_input(X, SEC6SUM, SEC6DATA, SEC6ORDINAL, 6))                          // 6 second sum
    if(do_input(SEC6SUM, SEC10SUM, SEC10DATA, SEC10ORDINAL, 10))                // 60 second sum
    if(do_input(SEC10SUM, MIN6SUM, MIN6DATA, MIN6ORDINAL, 6))                   // 6 minute sum
    if(do_input(MIN6SUM, MIN10SUM, MIN10DATA, MIN10ORDINAL, 10))                // 60 minute sum
    if(do_input(MIN10SUM, HOUR4SUM, HOUR4DATA, HOUR4ORDINAL, 4))                // 4 hour sum
    if(do_input(HOUR4SUM, HOUR6SUM, HOUR6DATA, HOUR6ORDINAL, 6)) {              // 24 hour sum
        do_input(HOUR6SUM, WEEK7SUM, WEEK7DATA, WEEK7ORDINAL, 7);               // 7 day sum
        do_input(HOUR6SUM, YEAR365SUM, YEAR365DATA, YEAR365ORDINAL, 365);       // 365 day sum
        if(do_input(HOUR6SUM, MONTH5SUM, MONTH5DATA, MONTH5ORDINAL, 5))         // 5 day sum
        if(do_input(MONTH5SUM, MONTH6SUM, MONTH6DATA, MONTH6ORDINAL, 6))        // 30 day sum
        if(do_input(MONTH6SUM, YEAR3SUM, YEAR3DATA, YEAR3ORDINAL, 3))           // 3 month sum
            do_input(YEAR3SUM, YEAR4SUM, YEAR4DATA, YEAR4ORDINAL, 4);           // 12 month sum

    }
}

double snf_SMHDMY_AveragePerMinute(                                             // Get mornalized minute avg of X
  snf_SMHDMY_Counter& X,                                                        // Input the Units in the period.
  snf_SMHDMY_Counter& M) {                                                      // Input the Milliseconds in the period.
    int Units = X.SEC6SUM + X.SEC10SUM;                                         // Get the count.
    int Milliseconds = M.SEC6SUM + M.SEC10SUM;                                  // Get the time.
    return snf_rationalize(Units, Milliseconds, MillisecondsInAMinute);         // Normalize to a minute.
}

double snfLOGmgr::MessagesPerMinute() {                                         // Avg Msgs/Minute.
    return snf_SMHDMY_AveragePerMinute(MessageCounter, TimeCounter);
}

double snfLOGmgr::HamPerMinute() {                                              // Avg Ham/Minute.
    return snf_SMHDMY_AveragePerMinute(HamCounter, TimeCounter);
}

double snfLOGmgr::SpamPerMinute() {                                             // Avg Spam/Minute.
    return snf_SMHDMY_AveragePerMinute(SpamCounter, TimeCounter);
}

double snfLOGmgr::WhitePerMinute() {                                            // Avg White/Minute.
    return snf_SMHDMY_AveragePerMinute(WhiteCounter, TimeCounter);
}

double snfLOGmgr::CautionPerMinute() {                                          // Avg Caution/Minute.
    return snf_SMHDMY_AveragePerMinute(CautionCounter, TimeCounter);
}

double snfLOGmgr::BlackPerMinute() {                                            // Avg Black/Minute.
    return snf_SMHDMY_AveragePerMinute(BlackCounter, TimeCounter);
}

double snfLOGmgr::TruncatePerMinute() {                                         // Avg Truncate/Minute.
    return snf_SMHDMY_AveragePerMinute(TruncateCounter, TimeCounter);
}

double snfLOGmgr::SamplePerMinute() {                                           // Avg Sample/Minute.
    return snf_SMHDMY_AveragePerMinute(SampleCounter, TimeCounter);
}

const std::string EmptyStatusSecondReport = "<stats class=\'second\'/>";        // Empty Status.Second looks like this.
std::string snfLOGmgr::getStatusSecondReport() {                                // Get latest status.second report.
    cd::ScopeMutex FlashBulb(StatusReportMutex);                                // Take a safe snapshot of the report.
    if(0 < SecondReportText.length()) return SecondReportText;                  // If it's posted then send it. If not
    return EmptyStatusSecondReport;                                             // then send the empty version.
}

const std::string EmptyStatusMinuteReport = "<stats class=\'minute\'/>";        // Empty Status.Minute looks like this.
std::string snfLOGmgr::getStatusMinuteReport() {                                // Get latest status.minute report.
    cd::ScopeMutex FlashBulb(StatusReportMutex);                                // Take a safe snapshot of the report.
    if(0 < MinuteReportText.length()) return MinuteReportText;                  // If it's posted then send it. If not
    return EmptyStatusMinuteReport;                                             // then send the empty version.
}

const std::string EmptyStatusHourReport = "<stats class=\'hour\'/>";            // Empty Status.Hour looks like this.
std::string snfLOGmgr::getStatusHourReport() {                                  // Get latest status.hour report.
    cd::ScopeMutex FlashBulb(StatusReportMutex);                                // Take a safe snapshot of the report.
    if(0 < HourReportText.length()) return HourReportText;                      // If it's posted then send it. If not
    return EmptyStatusHourReport;                                               // then send the empty version.
}