/* TA-LIB Copyright (c) 1999-2025, Mario Fortier
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or
* without modification, are permitted provided that the following
* conditions are met:
*
* - Redistributions of source code must retain the above copyright
*   notice, this list of conditions and the following disclaimer.
*
* - Redistributions in binary form must reproduce the above copyright
*   notice, this list of conditions and the following disclaimer in
*   the documentation and/or other materials provided with the
*   distribution.
*
* - Neither name of author nor the names of its contributors
*   may be used to endorse or promote products derived from this
*   software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
* ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
* LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS
* FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE
* REGENTS OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT,
* INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
* (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
* OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
* INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY,
* WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE
* OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE,
* EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*/

/* AUTO-GENERATED by ta_codegen — DO NOT EDIT.
* Source of truth: ta_codegen/input/<name>/  (regenerate: cd ta_codegen/generator && cargo run -- generate)
*/

#include <string.h>
#include <math.h>
#include "ta_func.h"
#include "ta_utility.h"
#include "ta_memory.h"
#include "ta_func_unguarded.h"

/* List of contributors:
 *
 *  Initial  Name/description
 *  -------------------------------------------------------------------
 *  AC       Angelo Ciceri
 *
 *
 * Change history:
 *
 *  MMDDYY BY   Description
 *  -------------------------------------------------------------------
 *  020605 AC   Creation
 */

TA_LIB_API int TA_CDLRISEFALL3METHODS_Lookback( void )
{
   int BodyLong_rangeType = TA_Globals->candleSettings[TA_BodyLong].rangeType;
   int BodyLong_avgPeriod = TA_Globals->candleSettings[TA_BodyLong].avgPeriod;
   double BodyLong_factor = TA_Globals->candleSettings[TA_BodyLong].factor;
   int BodyShort_rangeType = TA_Globals->candleSettings[TA_BodyShort].rangeType;
   int BodyShort_avgPeriod = TA_Globals->candleSettings[TA_BodyShort].avgPeriod;
   double BodyShort_factor = TA_Globals->candleSettings[TA_BodyShort].factor;
   return fmax(BodyShort_avgPeriod,BodyLong_avgPeriod) + 4;
}

TA_LIB_API TA_RetCode TA_CDLRISEFALL3METHODS( int    startIdx,
                                              int    endIdx,
                                              const double inOpen[],
                                              const double inHigh[],
                                              const double inLow[],
                                              const double inClose[],
                                              int          *outBegIdx,
                                              int          *outNBElement,
                                              int        outInteger[] )
{
   double BodyPeriodTotal[5];
   int i;
   int outIdx;
   int totIdx;
   int BodyShortTrailingIdx;
   int BodyLongTrailingIdx;
   int lookbackTotal;
   int BodyLong_rangeType = TA_Globals->candleSettings[TA_BodyLong].rangeType;
   int BodyLong_avgPeriod = TA_Globals->candleSettings[TA_BodyLong].avgPeriod;
   double BodyLong_factor = TA_Globals->candleSettings[TA_BodyLong].factor;
   int BodyShort_rangeType = TA_Globals->candleSettings[TA_BodyShort].rangeType;
   int BodyShort_avgPeriod = TA_Globals->candleSettings[TA_BodyShort].avgPeriod;
   double BodyShort_factor = TA_Globals->candleSettings[TA_BodyShort].factor;

   if( startIdx < 0 )
      return TA_OUT_OF_RANGE_START_INDEX;
   if( (endIdx < 0) || (endIdx < startIdx) )
      return TA_OUT_OF_RANGE_END_INDEX;

   if( !inOpen )
      return TA_BAD_PARAM;
   if( !inHigh )
      return TA_BAD_PARAM;
   if( !inLow )
      return TA_BAD_PARAM;
   if( !inClose )
      return TA_BAD_PARAM;
   if( !outInteger )
      return TA_BAD_PARAM;

   /* Identify the minimum number of price bar needed
    * to calculate at least one output.
    */
   lookbackTotal = TA_CDLRISEFALL3METHODS_Lookback();
   /* Move up the start index if there is not
    * enough initial data.
    */
   if( startIdx < lookbackTotal )
   {
      startIdx = lookbackTotal;
   }
   /* Make sure there is still something to evaluate. */
   if( startIdx > endIdx )
   {
      *outBegIdx= 0;
      *outNBElement= 0;
      return TA_SUCCESS;
   }
   /* Do the calculation using tight loops. */
   /* Add-up the initial period, except for the last value. */
   BodyPeriodTotal[4] = 0;
   BodyPeriodTotal[3] = 0;
   BodyPeriodTotal[2] = 0;
   BodyPeriodTotal[1] = 0;
   BodyPeriodTotal[0] = 0;
   BodyShortTrailingIdx = startIdx - BodyShort_avgPeriod;
   BodyLongTrailingIdx = startIdx - BodyLong_avgPeriod;
   i = BodyShortTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[3] = BodyPeriodTotal[3] + TA_CANDLERANGE(BodyShort,i - 3);
      BodyPeriodTotal[2] = BodyPeriodTotal[2] + TA_CANDLERANGE(BodyShort,i - 2);
      BodyPeriodTotal[1] = BodyPeriodTotal[1] + TA_CANDLERANGE(BodyShort,i - 1);
      i += 1;
   }
   i = BodyLongTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + TA_CANDLERANGE(BodyLong,i - 4);
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + TA_CANDLERANGE(BodyLong,i);
      i += 1;
   }
   i = startIdx;
   /* Proceed with the calculation for the requested range.
    * Must have:
    * - first candle: long white (black) candlestick
    * - then: group of falling (rising) small real body candlesticks (commonly black (white)) that hold within
    *   the prior long candle's range: ideally they should be three but two or more than three are ok too
    * - final candle: long white (black) candle that opens above (below) the previous small candle's close
    *   and closes above (below) the first long candle's close
    * The meaning of "short" and "long" is specified with TA_SetCandleSettings; here only patterns with 3 small candles
    * are considered;
    * outInteger is positive (1 to 100) or negative (-1 to -100)
    */
   outIdx = 0;
   do
   {
      if( ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) == 0 - ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) && /* white, 3 black, white  ||  black, 3 white, black */
          ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) == ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) &&
          ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) == ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) &&
          ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) == 0 - ((inClose[i] >= inOpen[i]) ? 1 : 0 - 1) &&
          fmin(inOpen[i - 3],inClose[i - 3]) < inHigh[i - 4] && /* 2nd to 4th hold within 1st: a part of the real body must be within 1st range */
          fmax(inOpen[i - 3],inClose[i - 3]) > inLow[i - 4] &&
          fmin(inOpen[i - 2],inClose[i - 2]) < inHigh[i - 4] &&
          fmax(inOpen[i - 2],inClose[i - 2]) > inLow[i - 4] &&
          fmin(inOpen[i - 1],inClose[i - 1]) < inHigh[i - 4] &&
          fmax(inOpen[i - 1],inClose[i - 1]) > inLow[i - 4] &&
          inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 3] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && /* 2nd to 4th are falling (rising) */
          inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) &&
          inOpen[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && /* 5th opens above (below) the prior close */
          inClose[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 4] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && /* 5th closes above (below) the 1st close */
          fabs(inClose[i - 4] - inOpen[i - 4]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[4],i - 4) && /* 1st long, then 3 small, 5th long */
          fabs(inClose[i - 3] - inOpen[i - 3]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[3],i - 3) &&
          fabs(inClose[i - 2] - inOpen[i - 2]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[2],i - 2) &&
          fabs(inClose[i - 1] - inOpen[i - 1]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[1],i - 1) &&
          fabs(inClose[i] - inOpen[i]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[0],i) )
      {
         outInteger[outIdx++] = 100 * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1);
      } else 
      {
         outInteger[outIdx++] = 0;
      }
      /* add the current range and subtract the first range: this is done after the pattern recognition
       * when avgPeriod is not 0, that means "compare with the previous candles" (it excludes the current candle)
       */
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + (TA_CANDLERANGE(BodyLong,i - 4) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx - 4));
      for( totIdx = 3; totIdx >= 1; totIdx -= 1 )
      {
         BodyPeriodTotal[totIdx] = BodyPeriodTotal[totIdx] + (TA_CANDLERANGE(BodyShort,i - totIdx) - TA_CANDLERANGE(BodyShort,BodyShortTrailingIdx - totIdx));
      }
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + (TA_CANDLERANGE(BodyLong,i) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx));
      i += 1;
      BodyShortTrailingIdx += 1;
      BodyLongTrailingIdx += 1;
   } while( i <= endIdx );
   /* All done. Indicate the output limits and return. */
   *outNBElement= outIdx;
   *outBegIdx= startIdx;
   return TA_SUCCESS;
}

TA_LIB_API TA_RetCode TA_CDLRISEFALL3METHODS_Unguarded( int    startIdx,
                                                        int    endIdx,
                                                        const double inOpen[],
                                                        const double inHigh[],
                                                        const double inLow[],
                                                        const double inClose[],
                                                        int          *outBegIdx,
                                                        int          *outNBElement,
                                                        int        outInteger[] )
{
   double BodyPeriodTotal[5];
   int i;
   int outIdx;
   int totIdx;
   int BodyShortTrailingIdx;
   int BodyLongTrailingIdx;
   int lookbackTotal;
   int BodyLong_rangeType = TA_Globals->candleSettings[TA_BodyLong].rangeType;
   int BodyLong_avgPeriod = TA_Globals->candleSettings[TA_BodyLong].avgPeriod;
   double BodyLong_factor = TA_Globals->candleSettings[TA_BodyLong].factor;
   int BodyShort_rangeType = TA_Globals->candleSettings[TA_BodyShort].rangeType;
   int BodyShort_avgPeriod = TA_Globals->candleSettings[TA_BodyShort].avgPeriod;
   double BodyShort_factor = TA_Globals->candleSettings[TA_BodyShort].factor;

   lookbackTotal = TA_CDLRISEFALL3METHODS_Lookback();
   if( startIdx < lookbackTotal )
   {
      startIdx = lookbackTotal;
   }
   if( startIdx > endIdx )
   {
      *outBegIdx= 0;
      *outNBElement= 0;
      return TA_SUCCESS;
   }
   BodyPeriodTotal[4] = 0;
   BodyPeriodTotal[3] = 0;
   BodyPeriodTotal[2] = 0;
   BodyPeriodTotal[1] = 0;
   BodyPeriodTotal[0] = 0;
   BodyShortTrailingIdx = startIdx - BodyShort_avgPeriod;
   BodyLongTrailingIdx = startIdx - BodyLong_avgPeriod;
   i = BodyShortTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[3] = BodyPeriodTotal[3] + TA_CANDLERANGE(BodyShort,i - 3);
      BodyPeriodTotal[2] = BodyPeriodTotal[2] + TA_CANDLERANGE(BodyShort,i - 2);
      BodyPeriodTotal[1] = BodyPeriodTotal[1] + TA_CANDLERANGE(BodyShort,i - 1);
      i += 1;
   }
   i = BodyLongTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + TA_CANDLERANGE(BodyLong,i - 4);
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + TA_CANDLERANGE(BodyLong,i);
      i += 1;
   }
   i = startIdx;
   outIdx = 0;
   do
   {
      if( ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) == 0 - ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) && ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) == ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) && ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) == ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) && ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) == 0 - ((inClose[i] >= inOpen[i]) ? 1 : 0 - 1) && fmin(inOpen[i - 3],inClose[i - 3]) < inHigh[i - 4] && fmax(inOpen[i - 3],inClose[i - 3]) > inLow[i - 4] && fmin(inOpen[i - 2],inClose[i - 2]) < inHigh[i - 4] && fmax(inOpen[i - 2],inClose[i - 2]) > inLow[i - 4] && fmin(inOpen[i - 1],inClose[i - 1]) < inHigh[i - 4] && fmax(inOpen[i - 1],inClose[i - 1]) > inLow[i - 4] && inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 3] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inOpen[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inClose[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 4] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && fabs(inClose[i - 4] - inOpen[i - 4]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[4],i - 4) && fabs(inClose[i - 3] - inOpen[i - 3]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[3],i - 3) && fabs(inClose[i - 2] - inOpen[i - 2]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[2],i - 2) && fabs(inClose[i - 1] - inOpen[i - 1]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[1],i - 1) && fabs(inClose[i] - inOpen[i]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[0],i) )
      {
         outInteger[outIdx++] = 100 * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1);
      } else 
      {
         outInteger[outIdx++] = 0;
      }
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + (TA_CANDLERANGE(BodyLong,i - 4) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx - 4));
      for( totIdx = 3; totIdx >= 1; totIdx -= 1 )
      {
         BodyPeriodTotal[totIdx] = BodyPeriodTotal[totIdx] + (TA_CANDLERANGE(BodyShort,i - totIdx) - TA_CANDLERANGE(BodyShort,BodyShortTrailingIdx - totIdx));
      }
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + (TA_CANDLERANGE(BodyLong,i) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx));
      i += 1;
      BodyShortTrailingIdx += 1;
      BodyLongTrailingIdx += 1;
   } while( i <= endIdx );
   *outNBElement= outIdx;
   *outBegIdx= startIdx;
   return TA_SUCCESS;
}

TA_RetCode TA_S_CDLRISEFALL3METHODS( int    startIdx,
                                     int    endIdx,
                                     const float inOpen[],
                                     const float inHigh[],
                                     const float inLow[],
                                     const float inClose[],
                                     int          *outBegIdx,
                                     int          *outNBElement,
                                     int        outInteger[] )
{
   double BodyPeriodTotal[5];
   int i;
   int outIdx;
   int totIdx;
   int BodyShortTrailingIdx;
   int BodyLongTrailingIdx;
   int lookbackTotal;
   int BodyLong_rangeType = TA_Globals->candleSettings[TA_BodyLong].rangeType;
   int BodyLong_avgPeriod = TA_Globals->candleSettings[TA_BodyLong].avgPeriod;
   double BodyLong_factor = TA_Globals->candleSettings[TA_BodyLong].factor;
   int BodyShort_rangeType = TA_Globals->candleSettings[TA_BodyShort].rangeType;
   int BodyShort_avgPeriod = TA_Globals->candleSettings[TA_BodyShort].avgPeriod;
   double BodyShort_factor = TA_Globals->candleSettings[TA_BodyShort].factor;

   if( startIdx < 0 )
      return TA_OUT_OF_RANGE_START_INDEX;
   if( (endIdx < 0) || (endIdx < startIdx) )
      return TA_OUT_OF_RANGE_END_INDEX;

   if( !inOpen )
      return TA_BAD_PARAM;
   if( !inHigh )
      return TA_BAD_PARAM;
   if( !inLow )
      return TA_BAD_PARAM;
   if( !inClose )
      return TA_BAD_PARAM;
   if( !outInteger )
      return TA_BAD_PARAM;

   lookbackTotal = TA_CDLRISEFALL3METHODS_Lookback();
   if( startIdx < lookbackTotal )
   {
      startIdx = lookbackTotal;
   }
   if( startIdx > endIdx )
   {
      *outBegIdx= 0;
      *outNBElement= 0;
      return TA_SUCCESS;
   }
   BodyPeriodTotal[4] = 0;
   BodyPeriodTotal[3] = 0;
   BodyPeriodTotal[2] = 0;
   BodyPeriodTotal[1] = 0;
   BodyPeriodTotal[0] = 0;
   BodyShortTrailingIdx = startIdx - BodyShort_avgPeriod;
   BodyLongTrailingIdx = startIdx - BodyLong_avgPeriod;
   i = BodyShortTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[3] = BodyPeriodTotal[3] + TA_CANDLERANGE(BodyShort,i - 3);
      BodyPeriodTotal[2] = BodyPeriodTotal[2] + TA_CANDLERANGE(BodyShort,i - 2);
      BodyPeriodTotal[1] = BodyPeriodTotal[1] + TA_CANDLERANGE(BodyShort,i - 1);
      i += 1;
   }
   i = BodyLongTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + TA_CANDLERANGE(BodyLong,i - 4);
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + TA_CANDLERANGE(BodyLong,i);
      i += 1;
   }
   i = startIdx;
   outIdx = 0;
   do
   {
      if( ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) == 0 - ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) && ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) == ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) && ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) == ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) && ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) == 0 - ((inClose[i] >= inOpen[i]) ? 1 : 0 - 1) && fmin(inOpen[i - 3],inClose[i - 3]) < inHigh[i - 4] && fmax(inOpen[i - 3],inClose[i - 3]) > inLow[i - 4] && fmin(inOpen[i - 2],inClose[i - 2]) < inHigh[i - 4] && fmax(inOpen[i - 2],inClose[i - 2]) > inLow[i - 4] && fmin(inOpen[i - 1],inClose[i - 1]) < inHigh[i - 4] && fmax(inOpen[i - 1],inClose[i - 1]) > inLow[i - 4] && inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 3] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inOpen[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inClose[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 4] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && fabs(inClose[i - 4] - inOpen[i - 4]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[4],i - 4) && fabs(inClose[i - 3] - inOpen[i - 3]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[3],i - 3) && fabs(inClose[i - 2] - inOpen[i - 2]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[2],i - 2) && fabs(inClose[i - 1] - inOpen[i - 1]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[1],i - 1) && fabs(inClose[i] - inOpen[i]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[0],i) )
      {
         outInteger[outIdx++] = 100 * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1);
      } else 
      {
         outInteger[outIdx++] = 0;
      }
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + (TA_CANDLERANGE(BodyLong,i - 4) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx - 4));
      for( totIdx = 3; totIdx >= 1; totIdx -= 1 )
      {
         BodyPeriodTotal[totIdx] = BodyPeriodTotal[totIdx] + (TA_CANDLERANGE(BodyShort,i - totIdx) - TA_CANDLERANGE(BodyShort,BodyShortTrailingIdx - totIdx));
      }
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + (TA_CANDLERANGE(BodyLong,i) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx));
      i += 1;
      BodyShortTrailingIdx += 1;
      BodyLongTrailingIdx += 1;
   } while( i <= endIdx );
   *outNBElement= outIdx;
   *outBegIdx= startIdx;
   return TA_SUCCESS;
}

TA_RetCode TA_S_CDLRISEFALL3METHODS_Unguarded( int    startIdx,
                                               int    endIdx,
                                               const float inOpen[],
                                               const float inHigh[],
                                               const float inLow[],
                                               const float inClose[],
                                               int          *outBegIdx,
                                               int          *outNBElement,
                                               int        outInteger[] )
{
   double BodyPeriodTotal[5];
   int i;
   int outIdx;
   int totIdx;
   int BodyShortTrailingIdx;
   int BodyLongTrailingIdx;
   int lookbackTotal;
   int BodyLong_rangeType = TA_Globals->candleSettings[TA_BodyLong].rangeType;
   int BodyLong_avgPeriod = TA_Globals->candleSettings[TA_BodyLong].avgPeriod;
   double BodyLong_factor = TA_Globals->candleSettings[TA_BodyLong].factor;
   int BodyShort_rangeType = TA_Globals->candleSettings[TA_BodyShort].rangeType;
   int BodyShort_avgPeriod = TA_Globals->candleSettings[TA_BodyShort].avgPeriod;
   double BodyShort_factor = TA_Globals->candleSettings[TA_BodyShort].factor;

   lookbackTotal = TA_CDLRISEFALL3METHODS_Lookback();
   if( startIdx < lookbackTotal )
   {
      startIdx = lookbackTotal;
   }
   if( startIdx > endIdx )
   {
      *outBegIdx= 0;
      *outNBElement= 0;
      return TA_SUCCESS;
   }
   BodyPeriodTotal[4] = 0;
   BodyPeriodTotal[3] = 0;
   BodyPeriodTotal[2] = 0;
   BodyPeriodTotal[1] = 0;
   BodyPeriodTotal[0] = 0;
   BodyShortTrailingIdx = startIdx - BodyShort_avgPeriod;
   BodyLongTrailingIdx = startIdx - BodyLong_avgPeriod;
   i = BodyShortTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[3] = BodyPeriodTotal[3] + TA_CANDLERANGE(BodyShort,i - 3);
      BodyPeriodTotal[2] = BodyPeriodTotal[2] + TA_CANDLERANGE(BodyShort,i - 2);
      BodyPeriodTotal[1] = BodyPeriodTotal[1] + TA_CANDLERANGE(BodyShort,i - 1);
      i += 1;
   }
   i = BodyLongTrailingIdx;
   while( i < startIdx )
   {
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + TA_CANDLERANGE(BodyLong,i - 4);
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + TA_CANDLERANGE(BodyLong,i);
      i += 1;
   }
   i = startIdx;
   outIdx = 0;
   do
   {
      if( ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) == 0 - ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) && ((inClose[i - 3] >= inOpen[i - 3]) ? 1 : 0 - 1) == ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) && ((inClose[i - 2] >= inOpen[i - 2]) ? 1 : 0 - 1) == ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) && ((inClose[i - 1] >= inOpen[i - 1]) ? 1 : 0 - 1) == 0 - ((inClose[i] >= inOpen[i]) ? 1 : 0 - 1) && fmin(inOpen[i - 3],inClose[i - 3]) < inHigh[i - 4] && fmax(inOpen[i - 3],inClose[i - 3]) > inLow[i - 4] && fmin(inOpen[i - 2],inClose[i - 2]) < inHigh[i - 4] && fmax(inOpen[i - 2],inClose[i - 2]) > inLow[i - 4] && fmin(inOpen[i - 1],inClose[i - 1]) < inHigh[i - 4] && fmax(inOpen[i - 1],inClose[i - 1]) > inLow[i - 4] && inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 3] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) < inClose[i - 2] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inOpen[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 1] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && inClose[i] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) > inClose[i - 4] * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1) && fabs(inClose[i - 4] - inOpen[i - 4]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[4],i - 4) && fabs(inClose[i - 3] - inOpen[i - 3]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[3],i - 3) && fabs(inClose[i - 2] - inOpen[i - 2]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[2],i - 2) && fabs(inClose[i - 1] - inOpen[i - 1]) < TA_CANDLEAVERAGE(BodyShort,BodyPeriodTotal[1],i - 1) && fabs(inClose[i] - inOpen[i]) > TA_CANDLEAVERAGE(BodyLong,BodyPeriodTotal[0],i) )
      {
         outInteger[outIdx++] = 100 * ((inClose[i - 4] >= inOpen[i - 4]) ? 1 : 0 - 1);
      } else 
      {
         outInteger[outIdx++] = 0;
      }
      BodyPeriodTotal[4] = BodyPeriodTotal[4] + (TA_CANDLERANGE(BodyLong,i - 4) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx - 4));
      for( totIdx = 3; totIdx >= 1; totIdx -= 1 )
      {
         BodyPeriodTotal[totIdx] = BodyPeriodTotal[totIdx] + (TA_CANDLERANGE(BodyShort,i - totIdx) - TA_CANDLERANGE(BodyShort,BodyShortTrailingIdx - totIdx));
      }
      BodyPeriodTotal[0] = BodyPeriodTotal[0] + (TA_CANDLERANGE(BodyLong,i) - TA_CANDLERANGE(BodyLong,BodyLongTrailingIdx));
      i += 1;
      BodyShortTrailingIdx += 1;
      BodyLongTrailingIdx += 1;
   } while( i <= endIdx );
   *outNBElement= outIdx;
   *outBegIdx= startIdx;
   return TA_SUCCESS;
}

