Shows the ratio between distance of key points and model size. Algorithm I: distance(t1, '2') / MainSize for AM/AM/DBM models. Algorithm II: distance(t3, A2Prev) / EAMSize. Used for model strength assessment in neural networks.

Needs check up, there is no data in DB

Points 2 and 5 levels intersection

Level p3-p5 to level p5-p6 ratio

(distance between levels P6"-p.5")/(P6" - main reference point level)

(distance between levels P6"-p.4)/(P6" - main reference point level)

(distance between levels P6"-p.3" [p.3' or p.3])/(P6" - main reference point level)

(distance between levels (P6"-p.2' [p.2])/(P6" - main reference point level)

(distance between P6"-p.1)/(P6" - main reference point level)

(number of bars between P6"-p.5")/(P6" - main reference point time)

(number of bars between P6"-p.4)/(P6" - main reference point time)

(number of bars between P6"-p.3" [p.3' or p.3)/(P6" - bar of the reference point)

(number of bars between P6"-p.2' [p.2])/(P6" - bar of the reference point)

(number of bars between P6"- p.1)/(P6" bar of the reference point)

The parameter measures the rate of change of the angle of the Trend Line relative to the difference between the level of P6 and t2 of EAM

The parameter measures the ratio of the angle of the trend line (TL) to the angle of the aims line (AL) of EAM

The parameter measures the rate of change of the angle of the Trend Line relative to the difference between the level of P6" and t2 of EAM

The parameter measures the ratio of the angle of the trend line (TL) to the angle of the aims line (AL) of EAM with P6"

The parameter measures the rate of change of the angle of the Trend Line relative to the difference between the level of P6 and t2 of auxialary AM

The parameter measures the ratio of the angle of the trend line (TL) to the angle of the aims line (AL) of auxialary AM

The parameter measures the rate of change of the angle of the Trend Line relative to the difference between the level of P6' and t2 of auxialary AM

The parameter measures the ratio of the angle of the trend line (TL) to the angle of the aims line (AL) of auxialary AM with P6'

The parameter measures the rate of change of the angle of the Trend Line relative to the difference between the level of P6 and t2 of AM or AM/DBM

The parameter measures the ratio of the angle of the trend line (TL) to the angle of the aims line (AL) of AM or AM/DBM

The parameter measures the slope (tangent) of the angle bisector between TL and AL for AM/DBM and EAM models

The parameter measures the slope (tangent) of the angle bisector between TL and AL for EAM with t5"

The parameter measures the slope (tangent) of the angle bisector between TL and AL for auxiliary models

The parameter measures the slope (tangent) of the angle bisector between TL and AL for auxiliary models with t5'

BisecMain*MainSizeT/MainSize for A1, BisecMain*EAMSizeT/EAMSize for A2. Dimensionless coefficient: =1 at 45deg, >1 steeper, <1 flatter

BisecMain_*EAMSizeT"/EAMSize" for EAM with t5". Dimensionless coefficient: =1 at 45deg, >1 steeper, <1 flatter

BisecAux*AuxSizeT/AuxSize for auxiliary models. Dimensionless coefficient: =1 at 45deg, >1 steeper, <1 flatter

BisecAux_*AuxSizeT'/AuxSize' for auxiliary with t5'. Dimensionless coefficient: =1 at 45deg, >1 steeper, <1 flatter

reaching the bar start level (BSL) on the TL in the section 1-3(3') of the main model

Variant with softer approach threshold (factor 0.5 relative to base)

Variant with stricter approach threshold (factor 1.5 relative to base)

Approach threshold based on TL speed in pips per 1% of model SizeTime (alfa baseline)

Prcnt-version with softer approach threshold (Beta factor relative to Prcnt base)

Prcnt-version with stricter approach threshold (Gamma factor relative to Prcnt base)

Same as TLexs13' but approach thresholds are multiplied by EXS_MULT for all variants (alfa/Beta/Gamma)

Same as TLexs13_Beta but approach thresholds are multiplied by EXS_MULT

Same as TLexs13_Gamma but approach thresholds are multiplied by EXS_MULT

Same as TLexs13_Prcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as TLexs13_BetaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as TLexs13_GammaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

reaching the BSL by the bar on TL 3(3')-4 of the main model

Variant with softer approach threshold (factor 0.5 relative to base)

Variant with stricter approach threshold (factor 1.5 relative to base)

Approach threshold based on TL speed in pips per 1% of model SizeTime (alfa baseline)

Prcnt-version with softer approach threshold (Beta factor relative to Prcnt base)

Prcnt-version with stricter approach threshold (Gamma factor relative to Prcnt base)

Same as TLexs3'4 but approach thresholds are multiplied by EXS_MULT for all variants (alfa/Beta/Gamma)

Same as TLexs3_4Beta but approach thresholds are multiplied by EXS_MULT

Same as TLexs3_4Gamma but approach thresholds are multiplied by EXS_MULT

Same as TLexs3_4Prcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as TLexs3_4BetaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as TLexs3_4GammaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

achieving BSL on AL of the main model on 1-2(2') section

Variant with softer approach threshold (factor 0.5 relative to base)

Variant with stricter approach threshold (factor 1.5 relative to base)

Approach threshold based on AL/LC speed in pips per 1% of model SizeTime (alfa baseline)

Prcnt-version with softer approach threshold (Beta factor relative to Prcnt base)

Prcnt-version with stricter approach threshold (Gamma factor relative to Prcnt base)

Same as ALexs12' but approach thresholds are multiplied by EXS_MULT for all variants (alfa/Beta/Gamma)

Same as ALexs12_Beta but approach thresholds are multiplied by EXS_MULT

Same as ALexs12_Gamma but approach thresholds are multiplied by EXS_MULT

Same as ALexs12_Prcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as ALexs12_BetaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as ALexs12_GammaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

achieving BSL on AL of the main model on 2(2')-4 section

Variant with softer approach threshold (factor 0.5 relative to base)

Variant with stricter approach threshold (factor 1.5 relative to base)

Approach threshold based on AL/LC speed in pips per 1% of model SizeTime (alfa baseline)

Prcnt-version with softer approach threshold (Beta factor relative to Prcnt base)

Prcnt-version with stricter approach threshold (Gamma factor relative to Prcnt base)

Same as ALexs2'4 but approach thresholds are multiplied by EXS_MULT for all variants (alfa/Beta/Gamma)

Same as ALexs2_4Beta but approach thresholds are multiplied by EXS_MULT

Same as ALexs2_4Gamma but approach thresholds are multiplied by EXS_MULT

Same as ALexs2_4Prcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as ALexs2_4BetaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as ALexs2_4GammaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

achieving BSL on TL of the auxiliary AM on 3-5 section

Variant with softer approach threshold (factor 0.5 relative to base)

Variant with stricter approach threshold (factor 1.5 relative to base)

Approach threshold based on TL speed in pips per 1% of model SizeTime (alfa baseline)

Prcnt-version with softer approach threshold (Beta factor relative to Prcnt base)

Prcnt-version with stricter approach threshold (Gamma factor relative to Prcnt base)

Same as auxTLexs but approach thresholds are multiplied by EXS_MULT for all variants (alfa/Beta/Gamma)

Same as auxTLexsBeta but approach thresholds are multiplied by EXS_MULT

Same as auxTLexsGamma but approach thresholds are multiplied by EXS_MULT

Same as auxTLexsPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as auxTLexsBetaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

Same as auxTLexsGammaPrcnt but Prcnt-based approach thresholds are multiplied by EXS_MULT

achieving BSL on AL of auxiliary AM (before p5)

Variant with softer approach threshold (factor 0.5 relative to base)

Variant with stricter approach threshold (factor 1.5 relative to base)

Prcnt-version that mirrors ALexs2_4Prcnt values for auxiliary model

Prcnt-version that mirrors ALexs2_4BetaPrcnt values for auxiliary model

Prcnt-version that mirrors ALexs2_4GammaPrcnt values for auxiliary model

Same as auxALexs but mirrors ALexs2'4_mult values for auxiliary model

Same as auxALexsBeta but mirrors ALexs2_4Beta_mult values for auxiliary model

Same as auxALexsGamma but mirrors ALexs2_4Gamma_mult values for auxiliary model

Same as auxALexsPrcnt but mirrors ALexs2_4Prcnt_mult values for auxiliary model

Same as auxALexsBetaPrcnt but mirrors ALexs2_4BetaPrcnt_mult values for auxiliary model

Same as auxALexsGammaPrcnt but mirrors ALexs2_4GammaPrcnt_mult values for auxiliary model

On the segment starting from [the bar that confirmed t4] (i.e., from the bar that crossed the t4 level) looking for [bar that has reached the Extended Approach Level of the P6] (default = 15%, LVL_PREAPPROACH in inc_calc_controls) . Next value "A" is calculated - the number of bars from [the moment the Extended Approach Level of P6 is reached] (only bars are taken into account, starting with the bar that confirmed t4, which is in the "models" table in the conf_t4 column) to [the moment of reaching the Approzch Level of P6]. !! - exception: if the Extended level of the approach of the P6 lies further away from P6 than the t4 level, then "A" is considered from the bar that confirmed t4 Then Timesize is calculated - the size of the AM in time, i.e. the distance in bars from t2' to the node of calculated P6 bar. The A/Timesize formula is used to calculate the parameter.

Distance from the first bar reaching preapproach level (15%) to P6 node bar, normalized by model Timesize.

Distance from the first bar reaching preapproach level (15%) to P6_ node bar, normalized by model Timesize.

Distance from the first bar reaching preapproach level (15%) to AuxP6 node bar, normalized by model Timesize.

Distance from the first bar reaching preapproach level (15%) to AuxP6_ node bar, normalized by model Timesize.

The parameter indicates whether the [Bumper Level] (LVL_BUMPER2 = 15%* or LVL_BUMPER1=20%) and [U-turn goal levels] were reached after (i.e. not including) the [bar that reaches the Extended level of Approach of the P6] before the [bar for reaching the Level of Approach to the P6]. If Bumper Level or levels of the U-turn goals were not reached after the Extended Approach Level of P6 was, then the parameter is set to 0 (zero). If any of these levels were reached reached before Bumper Level, then the parameter is set to furthest from the calculated P6 achieved level. * - with LVL_PREAPPROACH =15%, the Bumper Level value = 15% (since LVL_BUMPER2 = 15%) in _lvlapprP6, etc. will not make sense. It is logical to enter the Bumper Level in _lvlapprP6, etc. only when the Bumper Level is 20% (i.e. LVL_BUMPER1=20%, or when LVL_PREAPPROACH is replaced by level of t4. If LVL_PREAPPROACH is set to 20%-29%, then the value of the Bumper Level will not fall into this parameter at all (again, except for in the case of using level t4).

Number of bars from point 5 to the bar that reached Approach Level of P6 divided by the number of bars from point 2 to point 5

Number of bars from point 5 to the bar that reached Approach Level of P6", divided by the number of bars from point 2 to point 5

Number of bars from point 5 to the number of the bar that reached Approach Level of AuxP6, divided by the number of bars from point 2 to point 5

Number of bars from point 5 to the node bar that reached Approach Level of AuxP6' , divided by the number of bars from point 2 to point 5

The value A is calculated - the number of bars from [the moment of reaching the level of the Extended Approach level of P6 (default = 15%)] to [the moment of reaching the Approach Level.] Value B is calculated - the distance in bars from t2 to t4. Using the formula A/B, the parameter corresponding to the type of model under consideration is calculated.

if the approach level to the P6 is reached before the time of the P6 node bar, this parameter value is set to 0, otherwise it's set to 1.

The point X is calculated as the midpoint of the time segment from the confirmation point t4 to the P6 node bar. In this case, if the point X is between 2 bars, it is rounded. For ascending models, the high of the bar is determined at point X. The ratio is calculated by deviding [the high price level in moment X is the level of t3/or t1 in the case of AM] by the size of the model by levels. If the bar on which point X is located coincides with the bar that touches the Approach level to P6, or is located later than this bar, the parameter is not calculated. If the X bar has not appeared yet, then the parameter is not calculated.

The moment X is defined as the midpoint in time between the confirmation of point 4[conf_t4] and the node of P6. If X is between two bars, its value is rounded. (rounding to 2 digits). If the Approach Level of P6 [APPROACH] is reached before or during X, the parameter's value is 1. Otherwise it is 0. If there is no X on the NEXT bar, the parameter value is assumed to be 1. When approach is reached, the parameter's value becomes fixed.

If the parameter _llapprP6halfba has a value of 1 ([APPROACH] is reached before or at moment X), then _lvlapprP6halfba has a value of 0, else the distance between the calculated P6 ( P6", AuxP6, AuxP6', depending on which model is being considered) level and the high price level of the bar of moment X. The resulting value is divided by the size of the model in pips.

A check is performed to determine what is closer to the calculated P6 level , - either the level of p.4 - or the Extended Approach Level for P6 [LVL_PREAPPROACH] Depending on the comparison result, the value of the p4xPreapP6 parameter is set p4xPreapP6 = 1 - if the level of t4 is closer to the calculated P6, otherwise p4xPreapP6 = 0 The remaining parameters are calculated by analogy

When [APPROACH] is reached, the presence of a breakout of the AL of the AM is checked in the section from the confirmation bar of p4 [conf_t4] (inclusive) to the bar of reaching [APPROACH] (excluding) If a breakout is found, then 1. _c4preapALP6 = 1, otherwise _c4preapALP6= 0 The remaining parameters are calculated by analogy

Parameter is calculated if _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). The level of intersection of the AL by the price bar is calculated on the section from the confirmation bar for p4 [conf_t4] (inclusive) to the bar achieving [APPROACH] (excluding). If there are several intersecting bars on the section of the AL under consideration, the 1st one in time is taken. _llc4preapALP6 - the distance in bars from the confirmation bar p.4 [conf_t4] to the AL breakout bar is divided by the distance in bars from the AL breakout bar to the P6 node bar. If conf_t4 and the AL breakout are on the same bar, the parameter will be equal to 0. The remaining parameters are calculated by analogy

Parameter is calculated if _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). _lvlconf4ALP6 - the distance from the conf_t4 level (or p4, since they are equal) to the AL breakout level (hereinafter, this is the AL level in the middle of the breakout bar) is divided by the distance from the AL breakout level to the calculated P6 level. The remaining parameters are calculated by analogy

Parameter is calculated if _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). _llALapP6 - the distance in bars from the AL breakout bar to the bar that reached [APPROACH] is divided by the distance in bars from the conf_t4 bar to the node bar of P6. If the AL breakout and the [APPROACH] level are reached on the same bar, the parameter is 0. The remaining parameters are calculated by analogy

Parameter is calculated if _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). _lvlALapP6 - the distance from the AL breakout level to [APPROACH] is divided by the distance from the conf_t4 level (or t4, since they are equal) to the calculated P6 level The remaining parameters are calculated by analogy

Parameter is calculated if _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). The distance in bars from the AL breakout bar to the P6 node bar is divided by the distance in bars from the conf_t4 bar to the P6 node bar. The remaining parameters are calculated by analogy

Parameter is calculated if _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). The distance in bar from AL breakout bar to the P6 node bar is divided by the distance in bars from the conf_t4 bar to the P6 node bar. The remaining parameters are calculated by analogy

Parameter is calculated if _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). The search for an extremum is performed on the section from the AL breakout bar (inclusive) to the bar reaching [APPROACH] (excluding) If the AL breakout and [APPROACH] are reached on the same bar, the parameter is equal to 0. If the extremum is not found, the parameter is equal to 0. If 1 or more extremums are found (let's denote them as A), for each of the A, an oppositely directed extremum B is searched on the section after A (excluding ) to the bar reaching [APPROACH] (excluding). Then, for each case, the distance between levels A and B is calculated. Of all the pairs, only the A whose distance to level B is greater than the others is left. If the extremum B is not found for a specific extremum A, then this A is discarded. If there are 1 or more A for which there is B, then _ALcorP6 = 1 If there is not a single extremum A for which there is B, then _ALcorP6 = 0 The remaining parameters are calculated by analogy

Parameter is calculated if a. and b. are fullfilled: a. _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). b. _ALcorP6 = 1 (or another similar parameter corresponding to the model under consideration). the distance in bars between A and B extremums (from _ALcorP6 parameter) is divided by the distance in bars from conf_t4 to the bar of P6 node The remaining parameters are calculated by analogy

Parameter is calculated if a. and b. are fullfilled: a. _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). b. _ALcorP6 = 1 (or another similar parameter corresponding to the model under consideration). The distance between levels A and B is divided by the distance between levels conf_t4 (=level t4) and the calculated P6. The remaining parameters are calculated by analogy

Parameter is calculated if a. and b. are fullfilled: a. _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). b. _ALcorP6 = 1 (or another similar parameter corresponding to the model under consideration). The distance in bars between A and the bar of the P6 node is divided by the distance in bars from conf_t4 to the bar of calculate P6 The remaining parameters are calculated by analogy

Parameter is calculated if a. and b. are fullfilled: a. _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). b. _ALcorP6 = 1 (or another similar parameter corresponding to the model under consideration). The distance between levels A and the calculated p.6 is divided by the distance between levels conf_t4 and the calculated P6 The remaining parameters are calculated by analogy

Parameter is calculated if a. and b. are fullfilled: a. _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). b. _ALcorP6 = 1 (or another similar parameter corresponding to the model under consideration). The distance in bars between A and the P6 node bar is divided by the size of the model in bars The remaining parameters are calculated by analogy

Parameter is calculated if a. and b. are fullfilled: a. _c4preapALP6 = 1 (or another similar parameter corresponding to the model under consideration). b. _ALcorP6 = 1 (or another similar parameter corresponding to the model under consideration). The distance between level A and the calculated P6 is divided by the size of the model by levels The remaining parameters are calculated by analogy

If the _lvlapprP6 parameter is calculated and the value is different from 0, the following calculations are performed: 1. All LOW-extremums (Prelead candidates) are collected in the section from preapp_orig_bar+1 to appr_bar. 2. For each Prelead candidate, the maximum HIGH-extremum (Proto) is searched in the section from preapp_orig_bar to prelead_bar. 3. The correction size is calculated: proto_level - prelead_level. 4. The pair with the MAXIMUM correction size is selected. If such a pair is found, then _P6proto = 1, otherwise _P6proto = 0. The remaining parameters are calculated by analogy

Distance in bars between Proto-P6 and Prelead-extremum divided by Timesize. Pair selected by maximum correction size (proto_level - prelead_level). The remaining parameters are calculated by analogy

Difference between proto-P6 and Prelead-extremum levels divided by Pricesize. Pair selected by maximum correction size.

the difference between the proto-P6" and Prelead-extremum levels is divided by Pricesize

the difference between the Aux proto-AuxP6 and Prelead-extremum levels is divided by Pricesize

the difference between the Aux proto-6' and Prelead-extremum levels is divided by Pricesize

Distance in bars between proto-P6 and P6 node divided by Timesize. Can be positive or negative. Pair selected by maximum correction size (proto_level - prelead_level). The remaining parameters are calculated by analogy.

depends on _lvlapprP6", _P6"proto and according to rules: conf_preap_lvlrule app_lvlcond preap_app_llcond

depends on _lvlapprAuxP6, _AuxP6proto and according to rules: conf_preap_lvlrule app_lvlcond preap_app_llcond

depends on _lvlapprAuxP6', _AuxP6'proto and according to rules: conf_preap_lvlrule app_lvlcond preap_app_llcond

Difference between proto-P6 level and calculated P6 level divided by Pricesize. Pair selected by maximum correction size (proto_level - prelead_level). The remaining parameters are calculated by analogy.

1 if Proto-Prelead pair found, 0 otherwise. Search from conf_t4. Pair selected by maximum correction size (proto_level - prelead_level).

Similar to _GP6proto for P6_ variant. Pair selected by maximum correction size.

Similar to _GP6proto for auxiliary model. Pair selected by maximum correction size.

Similar to _GP6proto for auxiliary model with t5'. Pair selected by maximum correction size.

Distance in bars between Proto-P6 and Prelead-extremum divided by Timesize. Pair selected by maximum correction size.

Distance in bars between Proto-P6_ and Prelead-extremum divided by Timesize. Pair selected by maximum correction size.

Distance in bars between Proto-AuxP6 and Prelead-extremum divided by Timesize. Pair selected by maximum correction size.

Distance in bars between Proto-AuxP6_ and Prelead-extremum divided by Timesize. Pair selected by maximum correction size.

Difference between proto-P6 and Prelead-extremum levels divided by Pricesize. Pair selected by maximum correction size.

Difference between proto-P6_ and Prelead-extremum levels divided by Pricesize. Pair selected by maximum correction size.

Difference between proto-AuxP6 and Prelead-extremum levels divided by Pricesize. Pair selected by maximum correction size.

Difference between proto-AuxP6_ and Prelead-extremum levels divided by Pricesize. Pair selected by maximum correction size.

Distance in bars between proto-P6 and calculated P6 node divided by Timesize. Can be positive or negative. Pair selected by maximum correction size.

Distance in bars between proto-P6_ and calculated P6_ node divided by Timesize. Can be positive or negative. Pair selected by maximum correction size.

Distance in bars between proto-AuxP6 and calculated AuxP6 node divided by Timesize. Can be positive or negative. Pair selected by maximum correction size.

Distance in bars between proto-AuxP6_ and calculated AuxP6_ node divided by Timesize. Can be positive or negative. Pair selected by maximum correction size.

Difference between proto-P6 level and calculated P6 level divided by Pricesize. Pair selected by maximum correction size.

Difference between proto-P6_ level and calculated P6_ level divided by Pricesize. Pair selected by maximum correction size.

Difference between proto-AuxP6 level and calculated AuxP6 level divided by Pricesize. Pair selected by maximum correction size.

Difference between proto-AuxP6_ level and calculated AuxP6_ level divided by Pricesize. Pair selected by maximum correction size.

Absolute distance between calculated P6 level and proto-P6 level divided by Pricesize. Always calculated (0 if no proto found). Pair selected by maximum correction size.

Absolute distance between calculated P6_ level and proto-P6_ level divided by Pricesize. Always calculated (0 if no proto found). Pair selected by maximum correction size.

Absolute distance between calculated AuxP6 level and proto-AuxP6 level divided by Pricesize. Always calculated (0 if no proto found). Pair selected by maximum correction size.

Absolute distance between calculated AuxP6_ level and proto-AuxP6_ level divided by Pricesize. Always calculated (0 if no proto found). Pair selected by maximum correction size.

Absolute distance between calculated P6 level and prelead extremum level divided by Pricesize. Always calculated (0 if no prelead found). Pair selected by maximum correction size.

Absolute distance between calculated P6_ level and prelead extremum level divided by Pricesize. Always calculated (0 if no prelead found). Pair selected by maximum correction size.

Absolute distance between calculated AuxP6 level and prelead extremum level divided by Pricesize. Always calculated (0 if no prelead found). Pair selected by maximum correction size.

Absolute distance between calculated AuxP6_ level and prelead extremum level divided by Pricesize. Always calculated (0 if no prelead found). Pair selected by maximum correction size.

[Distance in bars between the conf_t4 bar and the node bar of the calculated P6] is calculated. The resulting value is divided by [distance between the node bar of P6 - reference point bar] The remaining parameters are calculated by analogy

The time distance between the bar of the real P6 and the node of the calculated P6 is calculated. The resulting value is denoted by A. Calculate A/Timesize Parameter can have both negative and positive values. It will be positive if the Real P6 bar lies in before the bar of the calculated P6 node. If the Real P6 bar lies after the bar of the calculated P6 node, this parameter will have a negative value.

The distance in bars between the confirmation bar t4 (conf_t4) and the Real P6 (RP6) bar divided by Timesize.

Distance in bars is calculated between the bar reaching the P6 Approach Level) and the bar reaching the P6 Bumper Level. The resulting value is then divided by Timesize

Distance in bars is calculated between the bar reaching the P6" Approach Level) and the bar reaching the P6 Bumper Level. The resulting value is then divided by Timesize

Distance in bars is calculated between the bar reaching the P6 Approach Level) and the bar reaching the AuxP6 Bumper Level. The resulting value is then divided by Timesize

Distance in bars is calculated between the bar reaching the P6 Approach Level) and the bar reaching the AuxP6' Bumper Level. The resulting value is then divided by Timesize

This parameter is calculated for models that have recorded the achievement of the P6 level (i.e., to calculate this parameter, the P6 level of the considered model must exist and must be reached). The distance in bars between the P6 bar and the bar that reached bumper level of P6 is calculated. The resulting value is divided by the size of the model in bars.

This parameter is calculated for models that have recorded the achievement of the P6" level (i.e., to calculate this parameter, the P6 " level of the considered model must must exist and must be reached). The distance in bars between the P6" Knot bar and the bar that reached bumper level of P6" is calculated. The resulting value is divided by the size of the model in bars.

This parameter is calculated for models that have recorded the achievement of the AuxP6 level (i.e., to calculate this parameter, the AuxP6 level of the considered model must exist and must be reached). The distance in bars between the AuxP6 bar and the bar that reached bumper level for AuxP6 is calculated. The resulting value is divided by the size of the model in bars.

This parameter is calculated for models that have recorded the achievement of the AuxP6" level (i.e., to calculate this parameter, the AuxP6" level of the considered model must exist and must be reached). The distance in bars between the AuxP6" bar and the bar that reached bumper level for AuxP6" is calculated. The resulting value is divided by the size of the model in bars.

Parameter pst_P4_P6bmp is calculated if there is a P6 (when the bumper level reaches for P6). The distance in bars between the p.4 bar and the bar that achieved P6 bumper level is calculated. ? The resulting value is divided by the size of the model in bars (according to P6). The remaining parameters are calculated by analogy

Return to the P6 level on the interval (bumper2_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6_ level on the interval (bumper2_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6 level on the interval (bumper2_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6_ level on the interval (bumper2_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6 level on the interval (bumper1_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6_ level on the interval (bumper1_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6 level on the interval (bumper1_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6_ level on the interval (bumper1_bar, Aim1ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6 level on the interval (Aim1ReachedAt, Aim2ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6_ level on the interval (Aim1ReachedAt, Aim2ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6 level on the interval (Aim1ReachedAt, Aim2ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6_ level on the interval (Aim1ReachedAt, Aim2ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6 level on the interval (Aim2ReachedAt, Aim3ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6_ level on the interval (Aim2ReachedAt, Aim3ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6 level on the interval (Aim2ReachedAt, Aim3ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6_ level on the interval (Aim2ReachedAt, Aim3ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6 level on the interval (Aim3ReachedAt, Aim4ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the P6_ level on the interval (Aim3ReachedAt, Aim4ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the P6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6 level on the interval (Aim3ReachedAt, Aim4ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6 level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

Return to the AuxP6_ level on the interval (Aim3ReachedAt, Aim4ReachedAt), boundaries excluded. Value = round((CP_level - max_high) / sizeLevel * 100, 0). 0 means the retracement reached the AuxP6_ level, 100 means the interval is empty and no retracement occurred. If the activation conditions are not met, the parameter is not written and remains NULL.

The extremes are being searched for between the bar that confirmed the level of p4 (conf_t4) and the bar of the Real P6 of AM (in this case RP6). Moreover, on the bar confirming p4 (conf_t4) , the extremum aligned with p3 of the model is not taken into account. -the extreme, counter-directional p3 of the model is taken into account On the bar of the real P6 of AM (RP6), extremes are not taken into account. The value of the pstex _conf_RP6 parameter is equal to the number of extremes found. The remaining parameters are calculated by analogy

Among the extremes found as part of the calculation of the pstex_conf_RP6 parameter, a search is carried out for extremes that are aligned with t3 of the model under consideration. Let's call the collection of such extrema a U-set. Then, for each of these extremes, in the section [from the confirmation bar for t4 (conf_t4) (inclusive) to the extremum bar in question (not including)], another extremum is searched that satisfies the following conditions: -opposite in direction to the extremum under consideration; -as far as possible (in terms of level) from the level of the extremum under consideration. The extremum satisfying the conditions is called "F" for convenience. Next, the distance in pips between the extremum under consideration [from the set U] and its paired extremum F is calculated. The resulting value is called "R" for convenience. The extremum of the set U, which has the largest value R, is the Lead-extremum. It is used to calculate the following parameters:

pst_lead_RP6 is the ratio of the distances from the Lead?extremum bar to RP6 to the Timesize. This parameter is present only for models that have a significant extreme in the range from conf_t4 to RP6.

pst_leadsize_RP6 is the ratio of the magnitude of the R lead extremum to the size of the model by levels . The rollback depth on the way to the 6th (according to the real 6th) This parameter is present only for models that have a significant extreme in the section from conf_t4 to RP6.

The extremes are being searched for between the RP6 bar (not including) and the bar that has reached the Bumper Level. The extreme at the bar that has reached the bumper level is not taken into account. The value of the parameter is equal to the number of extremes found. The remaining parameters are calculated by analogy

Among the extrema found for the parameter pstex _RP6bmp, a search is carried out for extrema that are counter-directional to p3 of the model under consideration. As well as for the previous group of parameters, for these extrema, the most distant preceding extrema are searched in the area from RP6 (not including here!) up to the considered extremum (not including). In this case, the extremum with the largest value of R is the extremum of Fall.

pst_RP6fall ? the ratio of the distances [from the RP6 extremum bar to the fall extremum bar] to Timesize This parameter is present only in models that have a significant extreme in the range RP6 and Bumper Level.

pst_RP6fallsize ? the ratio of the R fall-extremum to Pricesize. This parameter is present only in models that have a significant extreme between RP6 and Bumper Level.

Next, the extremum bar is used for calculation, which was previously used to calculate the final value of the R fall extremum (in the parameter from the group pst_RP6fall, pst_RP6?fall, etc.). For convenience, we denote this extremum M. The time distance from the real P6 bar to the extreme M bar is calculated. The resulting value is denoted A1. The value A1/ Timesize is calculated

The distance between the real P6 level and the extreme M level is calculated. We denote this value as X1, and calculate X1/Pricesize

Distance from P6 node to first bar reaching P6 level

Distance from P6_ node to first bar reaching P6_ level

Distance from AuxP6 node to first bar reaching AuxP6 level

Distance from AuxP6_ node to first bar reaching AuxP6_ level

Searches bars strictly between the bar that reached the approach level and the first bar that reached calculated P6. Uses the earliest bar among equal extremes. If the interval is empty, value = 0.

Uses the bar selected for pst_P6lvlpre. If no inner bars exist and pst_P6lvlpre = 0, the anchor bar falls back to the approach reach bar. Positive means the selected bar is before the P6 node, negative means after it.

Searches bars strictly between the bar that reached the approach level and the first bar that reached calculated P6_. Uses the earliest bar among equal extremes. If the interval is empty, value = 0.

Uses the bar selected for pst_P6_lvlpre. If no inner bars exist and pst_P6_lvlpre = 0, the anchor bar falls back to the approach reach bar. Positive means the selected bar is before the P6_ node, negative means after it.

Searches bars strictly between the bar that reached the approach level and the first bar that reached calculated AuxP6. Uses the earliest bar among equal extremes. If the interval is empty, value = 0.

Uses the bar selected for pst_AuxP6lvlpre. If no inner bars exist and pst_AuxP6lvlpre = 0, the anchor bar falls back to the approach reach bar. Positive means the selected bar is before the AuxP6 node, negative means after it.

Searches bars strictly between the bar that reached the approach level and the first bar that reached calculated AuxP6_. Uses the earliest bar among equal extremes. If the interval is empty, value = 0.

Uses the bar selected for pst_AuxP6_lvlpre. If no inner bars exist and pst_AuxP6_lvlpre = 0, the anchor bar falls back to the approach reach bar. Positive means the selected bar is before the AuxP6_ node, negative means after it.

Presence/absence of data about the previous trend