Syntax guide

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Talib

talib.CDL2CROWS

The talib.CDL2CROWS() function is used to calculate Two Crows (K-line chart - Two Crows).

The return value of the talib.CDL2CROWS() function is a one-dimensional array. array

talib.CDL2CROWS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDL2CROWS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDL2CROWS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDL2CROWS(records);
    Log(ret);
}

The CDL2CROWS() function is described in the talib library documentation as: CDL2CROWS(Records[Open,High,Low,Close]) = Array(outInteger) For calls in the Python language, passing parameters is different and needs to be based on the above description: Records[Open,High,Low,Close].

Example of splitting a variable records (i.e. parameter inPriceOHLC, type {@struct/Record Record} array of structures) into: Open list: written in Python as records.Open. High list: written as records.High in Python. Low list: written in Python as records.Low. Close list: written in Python as records.Close.

Called in Python strategy code:

talib.CDL2CROWS(records.Open, records.High, records.Low, records.Close)

The other talib indicators are described in the same way and they will not be repeated.

talib.CDL3BLACKCROWS

The talib.CDL3BLACKCROWS() function is used to calculate Three Black Crows (K-line chart - Three Black Crows).

The return value of the talib.CDL3BLACKCROWS() function is: a one-dimensional array. array

talib.CDL3BLACKCROWS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDL3BLACKCROWS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDL3BLACKCROWS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDL3BLACKCROWS(records);
    Log(ret);
}

The CDL3BLACKCROWS() function is described in the talib library documentation as: CDL3BLACKCROWS(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDL3INSIDE

The talib.CDL3INSIDE() function is used to calculate Three Inside Up/Down (K-line chart: Three Inside Up/Down).

The return value of the talib.CDL3INSIDE() function is: a one-dimensional array. array

talib.CDL3INSIDE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDL3INSIDE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDL3INSIDE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDL3INSIDE(records);
    Log(ret);
}

The CDL3INSIDE() function is described in the talib library documentation as: CDL3INSIDE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDL3LINESTRIKE

The talib.CDL3LINESTRIKE() function is used to calculate the Three-Line Strike (K-line chart: Three-Line Strike).

The return value of the talib.CDL3LINESTRIKE() function is: a one-dimensional array. array

talib.CDL3LINESTRIKE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDL3LINESTRIKE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDL3LINESTRIKE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDL3LINESTRIKE(records);
    Log(ret);
}

The CDL3LINESTRIKE() function is described in the talib library documentation as: CDL3LINESTRIKE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDL3OUTSIDE

The talib.CDL3OUTSIDE() function is used to calculate Three Outside Up/Down (K-line chart: Three Outside Up/Down).

The return value of the talib.CDL3OUTSIDE() function is: a one-dimensional array. array

talib.CDL3OUTSIDE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDL3OUTSIDE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDL3OUTSIDE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDL3OUTSIDE(records);
    Log(ret);
}

The CDL3OUTSIDE() function is described in the talib library documentation as: CDL3OUTSIDE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDL3STARSINSOUTH

The talib.CDL3STARSINSOUTH() function is used to calculate Three Stars In The South (K-line chart: Three Stars In The South).

The return value of the talib.CDL3STARSINSOUTH() function is: a one-dimensional array. array

talib.CDL3STARSINSOUTH(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDL3STARSINSOUTH(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDL3STARSINSOUTH(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDL3STARSINSOUTH(records);
    Log(ret);
}

The CDL3STARSINSOUTH() function is described in the talib library documentation as: CDL3STARSINSOUTH(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDL3WHITESOLDIERS

The talib.CDL3WHITESOLDIERS() function is used to calculate Three Advancing White Soldiers (K-line chart: Three Advancing White Soldiers).

The return value of the talib.CDL3WHITESOLDIERS() function is: a one-dimensional array. array

talib.CDL3WHITESOLDIERS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDL3WHITESOLDIERS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDL3WHITESOLDIERS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDL3WHITESOLDIERS(records);
    Log(ret);
}

The CDL3WHITESOLDIERS() function is described in the talib library documentation as: CDL3WHITESOLDIERS(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLABANDONEDBABY

The talib.CDLABANDONEDBABY() function is used to calculate Abandoned Baby (K-line chart: Abandoned Baby).

The return value of the talib.CDLABANDONEDBABY() function is: a one-dimensional array. array

talib.CDLABANDONEDBABY(inPriceOHLC) talib.CDLABANDONEDBABY(inPriceOHLC, optInPenetration)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array The optInPenetration parameter is used to set the Penetration, the default value is 0.3. optInPenetration false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLABANDONEDBABY(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLABANDONEDBABY(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLABANDONEDBABY(records);
    Log(ret);
}

The CDLABANDONEDBABY() function is described in the talib library documentation as: CDLABANDONEDBABY(Records[Open,High,Low,Close],Penetration = 0.3) = Array(outInteger)

talib.CDLADVANCEBLOCK

The talib.CDLADVANCEBLOCK() function is used to calculate the Advance Block (K-line chart: Advance).

The return value of the talib.CDLADVANCEBLOCK() function is a one-dimensional array. array

talib.CDLADVANCEBLOCK(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLADVANCEBLOCK(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLADVANCEBLOCK(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLADVANCEBLOCK(records);
    Log(ret);
}

The CDLADVANCEBLOCK() function is described in the talib library documentation as: CDLADVANCEBLOCK(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLBELTHOLD

The talib.CDLBELTHOLD() function is used to calculate the Belt-hold (K-line chart: Belt-hold).

The return value of the talib.CDLBELTHOLD() function is: a one-dimensional array. array

talib.CDLBELTHOLD(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLBELTHOLD(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLBELTHOLD(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLBELTHOLD(records);
    Log(ret);
}

The CDLBELTHOLD() function is described in the talib library documentation as: CDLBELTHOLD(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLBREAKAWAY

The talib.CDLBREAKAWAY() function is used to calculate the Breakaway (K-line chart: Breakaway).

The return value of the talib.CDLBREAKAWAY() function is: a one-dimensional array. array

talib.CDLBREAKAWAY(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLBREAKAWAY(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLBREAKAWAY(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLBREAKAWAY(records);
    Log(ret);
}

CDLBREAKAWAY() function is described in the talib library documentation as: CDLBREAKAWAY(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLCLOSINGMARUBOZU

The talib.CDLCLOSINGMARUBOZU() function is used to calculate Closing Marubozu (K-line chart: closing bareheaded and barefoot).

The return value of the talib.CDLCLOSINGMARUBOZU() function is: a one-dimensional array. array

talib.CDLCLOSINGMARUBOZU(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLCLOSINGMARUBOZU(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLCLOSINGMARUBOZU(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLCLOSINGMARUBOZU(records);
    Log(ret);
}

The CDLCLOSINGMARUBOZU() function is described in the talib library documentation as: CDLCLOSINGMARUBOZU(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLCONCEALBABYSWALL

The talib.CDLCONCEALBABYSWALL() function is used to calculate the Concealing Baby Swallow (K-line chart: Concealing Baby Swallow pattern).

The return value of the talib.CDLCONCEALBABYSWALL() function is: a one-dimensional array. array

talib.CDLCONCEALBABYSWALL(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLCONCEALBABYSWALL(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLCONCEALBABYSWALL(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLCONCEALBABYSWALL(records);
    Log(ret);
}

The CDLCONCEALBABYSWALL() function is described in the talib library documentation as: CDLCONCEALBABYSWALL(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLCOUNTERATTACK

The talib.CDLCOUNTERATTACK() function is used to calculate Counterattack (K-line chart:Counterattack).

The return value of the talib.CDLCOUNTERATTACK() function is a one-dimensional array. array

talib.CDLCOUNTERATTACK(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLCOUNTERATTACK(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLCOUNTERATTACK(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLCOUNTERATTACK(records);
    Log(ret);
}

The CDLCOUNTERATTACK() function is described in the talib library documentation as: CDLCOUNTERATTACK(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLDARKCLOUDCOVER

The talib.CDLDARKCLOUDCOVER() function is used to calculate Dark Cloud Cover (K-line chart: dark cloud cover).

The return value of the talib.CDLDARKCLOUDCOVER() function is a one-dimensional array. array

talib.CDLDARKCLOUDCOVER(inPriceOHLC) talib.CDLDARKCLOUDCOVER(inPriceOHLC, optInPenetration)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLDARKCLOUDCOVER(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLDARKCLOUDCOVER(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLDARKCLOUDCOVER(records);
    Log(ret);
}

The CDLDARKCLOUDCOVER() function is described in the talib library documentation as: CDLDARKCLOUDCOVER(Records[Open,High,Low,Close],Penetration = 0.5) = Array(outInteger)

talib.CDLDOJI

The talib.CDLDOJI() function is used to calculate Doji (K-line chart: Doji).

The return value of the talib.CDLDOJI() function is: a one-dimensional array. array

talib.CDLDOJI(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLDOJI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLDOJI(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLDOJI(records);
    Log(ret);
}

The CDLDOJI() function is described in the talib library documentation as: CDLDOJI(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLDOJISTAR

The talib.CDLDOJISTAR() function is used to calculate the Doji Star (K-line chart: Doji Star).

The return value of the talib.CDLDOJISTAR() function is: a one-dimensional array. array

talib.CDLDOJISTAR(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLDOJISTAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLDOJISTAR(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLDOJISTAR(records);
    Log(ret);
}

The CDLDOJISTAR() function is described in the talib library documentation as: CDLDOJISTAR(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLDRAGONFLYDOJI

The talib.CDLDRAGONFLYDOJI() function is used to calculate Dragonfly Doji (K-line chart: Dragonfly Doji).

The return value of the talib.CDLDRAGONFLYDOJI() function is: a one-dimensional array. array

talib.CDLDRAGONFLYDOJI(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLDRAGONFLYDOJI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLDRAGONFLYDOJI(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLDRAGONFLYDOJI(records);
    Log(ret);
}

The CDLDRAGONFLYDOJI() function is described in the talib library documentation as: CDLDRAGONFLYDOJI(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLENGULFING

The talib.CDLENGULFING() function is used to calculate the Engulfing Pattern (K-line chart: engulfing).

The return value of the talib.CDLENGULFING() function is a one-dimensional array. array

talib.CDLENGULFING(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLENGULFING(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLENGULFING(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLENGULFING(records);
    Log(ret);
}

The CDLENGULFING() function is described in the talib library documentation as: CDLENGULFING(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLEVENINGDOJISTAR

The talib.CDLEVENINGDOJISTAR() function is used to calculate the Evening Doji Star (K-line chart: Evening Doji Star).

The return value of the talib.CDLEVENINGDOJISTAR() function is: a one-dimensional array. array

talib.CDLEVENINGDOJISTAR(inPriceOHLC) talib.CDLEVENINGDOJISTAR(inPriceOHLC, optInPenetration)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLEVENINGDOJISTAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLEVENINGDOJISTAR(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLEVENINGDOJISTAR(records);
    Log(ret);
}

The CDLEVENINGDOJISTAR() function is described in the talib library documentation as: CDLEVENINGDOJISTAR(Records[Open,High,Low,Close],Penetration = 0.3) = Array(outInteger)

talib.CDLEVENINGSTAR

The talib.CDLEVENINGSTAR() function is used to calculate the Evening Star (K-line chart: Evening Star).

The return value of the talib.CDLEVENINGSTAR() function is: a one-dimensional array. array

talib.CDLEVENINGSTAR(inPriceOHLC) talib.CDLEVENINGSTAR(inPriceOHLC, optInPenetration)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLEVENINGSTAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLEVENINGSTAR(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLEVENINGSTAR(records);
    Log(ret);
}

The CDLEVENINGSTAR() function is described in the talib library documentation as: CDLEVENINGSTAR(Records[Open,High,Low,Close],Penetration = 0.3) = Array(outInteger)

talib.CDLGAPSIDESIDEWHITE

The talib.CDLGAPSIDESIDEWHITE() function is used to calculate Up/Down-gap side-by-side white lines (K-line chart: Up/Down gap side-by-side white lines).

The return value of the talib.CDLGAPSIDESIDEWHITE() function is: a one-dimensional array. array

talib.CDLGAPSIDESIDEWHITE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLGAPSIDESIDEWHITE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLGAPSIDESIDEWHITE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLGAPSIDESIDEWHITE(records);
    Log(ret);
}

The CDLGAPSIDESIDEWHITE() function is described in the talib library documentation as: CDLGAPSIDESIDEWHITE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLGRAVESTONEDOJI

The talib.CDLGRAVESTONEDOJI() function is used to calculate the Gravestone Doji (K-line chart: Gravestone Doji).

The return value of the talib.CDLGRAVESTONEDOJI() function is: a one-dimensional array. array

talib.CDLGRAVESTONEDOJI(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLGRAVESTONEDOJI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLGRAVESTONEDOJI(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLGRAVESTONEDOJI(records);
    Log(ret);
}

The CDLGRAVESTONEDOJI() function is described in the talib library documentation as: CDLGRAVESTONEDOJI(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHAMMER

The talib.CDLHAMMER() function is used to calculate Hammer (K-line chart: Hammer).

The return value of the talib.CDLHAMMER() function is: a one-dimensional array. array

talib.CDLHAMMER(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHAMMER(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHAMMER(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHAMMER(records);
    Log(ret);
}

The CDLHAMMER() function is described in the talib library documentation as: CDLHAMMER(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHANGINGMAN

The talib.CDLHANGINGMAN() function is used to calculate Hanging Man (K-line chart: Hanging Man).

The return value of the talib.CDLHANGINGMAN() function is a one-dimensional array. array

talib.CDLHANGINGMAN(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHANGINGMAN(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHANGINGMAN(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHANGINGMAN(records);
    Log(ret);
}

The CDLHANGINGMAN() function is described in the talib library documentation as: CDLHANGINGMAN(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHARAMI

The talib.CDLHARAMI() function is used to calculate the Harami Pattern (K-line chart: negative and positive lines).

The return value of the talib.CDLHARAMI() function is a one-dimensional array. array

talib.CDLHARAMI(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHARAMI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHARAMI(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHARAMI(records);
    Log(ret);
}

The CDLHARAMI() function is described in the talib library documentation as: CDLHARAMI(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHARAMICROSS

The talib.CDLHARAMICROSS() function is used to calculate the Harami Cross Pattern (K-line chart: cross negative and positive lines).

The return value of the talib.CDLHARAMICROSS() function is: a one-dimensional array. array

talib.CDLHARAMICROSS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHARAMICROSS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHARAMICROSS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHARAMICROSS(records);
    Log(ret);
}

The CDLHARAMICROSS() function is described in the talib library documentation as: CDLHARAMICROSS(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHIGHWAVE

The talib.CDLHIGHWAVE() function is used to calculate the High-Wave Candle (K-line chart: Long Leg Cross).

The return value of the talib.CDLHIGHWAVE() function is a one-dimensional array. array

talib.CDLHIGHWAVE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHIGHWAVE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHIGHWAVE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHIGHWAVE(records);
    Log(ret);
}

The CDLHIGHWAVE() function is described in the talib library documentation as: CDLHIGHWAVE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHIKKAKE

The talib.CDLHIKKAKE() function is used to calculate the Hikkake Pattern (K-line chart: trap).

The return value of the talib.CDLHIKKAKE() function is a one-dimensional array. array

talib.CDLHIKKAKE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHIKKAKE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHIKKAKE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHIKKAKE(records);
    Log(ret);
}

The CDLHIKKAKE() function is described in the talib library documentation as: CDLHIKKAKE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHIKKAKEMOD

The talib.CDLHIKKAKEMOD() function is used to calculate the Modified Hikkake Pattern (K-line chart: Modified Trap).

The return value of the talib.CDLHIKKAKEMOD() function is: a one-dimensional array. array

talib.CDLHIKKAKEMOD(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHIKKAKEMOD(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHIKKAKEMOD(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHIKKAKEMOD(records);
    Log(ret);
}

The CDLHIKKAKEMOD() function is described in the talib library documentation as: CDLHIKKAKEMOD(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLHOMINGPIGEON

The talib.CDLHOMINGPIGEON() function is used to calculate the Homing Pigeon (K-line chart: Pigeon).

The return value of the talib.CDLHOMINGPIGEON() function is: a one-dimensional array. array

talib.CDLHOMINGPIGEON(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLHOMINGPIGEON(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLHOMINGPIGEON(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLHOMINGPIGEON(records);
    Log(ret);
}

The CDLHOMINGPIGEON() function is described in the talib library documentation as: CDLHOMINGPIGEON(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLIDENTICAL3CROWS

The talib.CDLIDENTICAL3CROWS() function is used to calculate Identical Three Crows (K-line chart: same three crows).

The return value of the talib.CDLIDENTICAL3CROWS() function is: a one-dimensional array. array

talib.CDLIDENTICAL3CROWS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLIDENTICAL3CROWS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLIDENTICAL3CROWS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLIDENTICAL3CROWS(records);
    Log(ret);
}

The CDLIDENTICAL3CROWS() function is described in the talib library documentation as: CDLIDENTICAL3CROWS(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLINNECK

The talib.CDLINNECK() function is used to calculate the In-Neck Pattern (K-line chart: neckline).

The return value of the talib.CDLINNECK() function is: a one-dimensional array. array

talib.CDLINNECK(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLINNECK(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLINNECK(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLINNECK(records);
    Log(ret);
}

The CDLINNECK() function is described in the talib library documentation as: CDLINNECK(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLINVERTEDHAMMER

The talib.CDLINVERTEDHAMMER() function is used to calculate the Inverted Hammer (K-line chart: Inverted Hammer).

The return value of the talib.CDLINVERTEDHAMMER() function is: a one-dimensional array. array

talib.CDLINVERTEDHAMMER(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLINVERTEDHAMMER(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLINVERTEDHAMMER(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLINVERTEDHAMMER(records);
    Log(ret);
}

The CDLINVERTEDHAMMER() function is described in the talib library documentation as: CDLINVERTEDHAMMER(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLKICKING

The talib.CDLKICKING() function is used to calculate Kicking (K-line chart: kicking).

The return value of the talib.CDLKICKING() function is a one-dimensional array. array

talib.CDLKICKING(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLKICKING(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLKICKING(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLKICKING(records);
    Log(ret);
}

The CDLKICKING() function is described in the talib library documentation as: CDLKICKING(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLKICKINGBYLENGTH

The talib.CDLKICKINGBYLENGTH() function is used to calculate the kick - bull/bear determined by the longer Marubozu (K-line chart: kick bull/kick bear).

The return value of the talib.CDLKICKINGBYLENGTH() function is: a one-dimensional array. array

talib.CDLKICKINGBYLENGTH(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLKICKINGBYLENGTH(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLKICKINGBYLENGTH(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLKICKINGBYLENGTH(records);
    Log(ret);
}

The CDLKICKINGBYLENGTH() function is described in the talib library documentation as: CDLKICKINGBYLENGTH(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLLADDERBOTTOM

The talib.CDLLADDERBOTTOM() function is used to calculate the Ladder Bottom (K-line chart: Ladder Bottom).

The return value of the talib.CDLLADDERBOTTOM() function is: a one-dimensional array. array

talib.CDLLADDERBOTTOM(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLLADDERBOTTOM(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLLADDERBOTTOM(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLLADDERBOTTOM(records);
    Log(ret);
}

The CDLLADDERBOTTOM() function is described in the talib library documentation as: CDLLADDERBOTTOM(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLLONGLEGGEDDOJI

The talib.CDLLONGLEGGEDDOJI() function is used to calculate the Long Legged Doji (K-line chart: Long Legged Doji).

The return value of the talib.CDLLONGLEGGEDDOJI() function is: a one-dimensional array. array

talib.CDLLONGLEGGEDDOJI(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLLONGLEGGEDDOJI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLLONGLEGGEDDOJI(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLLONGLEGGEDDOJI(records);
    Log(ret);
}

The CDLLONGLEGGEDDOJI() function is described in the talib library documentation as: CDLLONGLEGGEDDOJI(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLLONGLINE

The talib.CDLLONGLINE() function is used to calculate the Long Line Candle (K-line chart: Long Line).

The return value of the talib.CDLLONGLINE() function is: a one-dimensional array. array

talib.CDLLONGLINE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLLONGLINE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLLONGLINE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLLONGLINE(records);
    Log(ret);
}

The CDLLONGLINE() function is described in the talib library documentation as: CDLLONGLINE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLMARUBOZU

The talib.CDLMARUBOZU() function is used to calculate the Marubozu (K-line chart: bare head and bare foot).

The return value of the talib.CDLMARUBOZU() function is a one-dimensional array. array

talib.CDLMARUBOZU(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLMARUBOZU(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLMARUBOZU(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLMARUBOZU(records);
    Log(ret);
}

The CDLMARUBOZU() function is described in the talib library documentation as: CDLMARUBOZU(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLMATCHINGLOW

The talib.CDLMATCHINGLOW() function is used to calculate Matching Low (K-line chart: Matching Low).

The return value of the talib.CDLMATCHINGLOW() function is: a one-dimensional array. array

talib.CDLMATCHINGLOW(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLMATCHINGLOW(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLMATCHINGLOW(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLMATCHINGLOW(records);
    Log(ret);
}

The CDLMATCHINGLOW() function is described in the talib library documentation as: CDLMATCHINGLOW(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLMATHOLD

The talib.CDLMATHOLD() function is used to calculate Mat Hold (K-line chart: Mat Hold).

The return value of the talib.CDLMATHOLD() function is: a one-dimensional array. array

talib.CDLMATHOLD(inPriceOHLC) talib.CDLMATHOLD(inPriceOHLC, optInPenetration)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array The optInPenetration parameter is optional and is used to specify the percentage of the width of the rising/falling trend line, the default value is 0.5. optInPenetration false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLMATHOLD(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLMATHOLD(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLMATHOLD(records);
    Log(ret);
}

The CDLMATHOLD() function is described in the talib library documentation as: CDLMATHOLD(Records[Open,High,Low,Close],Penetration = 0.5) = Array(outInteger)

talib.CDLMORNINGDOJISTAR

The talib.CDLMORNINGDOJISTAR() function is used to calculate the Morning Doji Star (K-line chart: Morning Doji Star).

The return value of the talib.CDLMORNINGDOJISTAR() function is: a one-dimensional array. array

talib.CDLMORNINGDOJISTAR(inPriceOHLC) talib.CDLMORNINGDOJISTAR(inPriceOHLC, optInPenetration)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array The optInPenetration parameter is used to specify the degree of overlap between the validation opening price and the solid part, the default value is 0.3. optInPenetration false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLMORNINGDOJISTAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLMORNINGDOJISTAR(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLMORNINGDOJISTAR(records);
    Log(ret);
}

The CDLMORNINGDOJISTAR() function is described in the talib library documentation as: CDLMORNINGDOJISTAR(Records[Open,High,Low,Close],Penetration = 0.3) = Array(outInteger)

talib.CDLMORNINGSTAR

The talib.CDLMORNINGSTAR() function is used to calculate Morning Star (K-line chart: Morning Star).

The return value of the talib.CDLMORNINGSTAR() function is: a one-dimensional array. array

talib.CDLMORNINGSTAR(inPriceOHLC) talib.CDLMORNINGSTAR(inPriceOHLC, optInPenetration)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array The optInPenetration parameter is the price float percentage threshold required for trend confirmation and takes a value in the range [0,1], with a default value of 0.3. optInPenetration false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLMORNINGSTAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLMORNINGSTAR(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLMORNINGSTAR(records);
    Log(ret);
}

The CDLMORNINGSTAR() function is described in the talib library documentation as: CDLMORNINGSTAR(Records[Open,High,Low,Close],Penetration=0.3) = Array(outInteger)

talib.CDLONNECK

The talib.CDLONNECK() function is used to calculate the On-Neck Pattern (K-line chart: On-Neck Pattern).

The return value of the talib.CDLONNECK() function is a one-dimensional array. array

talib.CDLONNECK(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLONNECK(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLONNECK(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLONNECK(records);
    Log(ret);
}

The CDLONNECK() function is described in the talib library documentation as: CDLONNECK(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLPIERCING

The talib.CDLPIERCING() function is used to calculate the Piercing Pattern (K-line chart: Piercing Pattern).

The return value of the talib.CDLPIERCING() function is a one-dimensional array. array

talib.CDLPIERCING(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLPIERCING(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLPIERCING(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLPIERCING(records);
    Log(ret);
}

The CDLPIERCING() function is described in the talib library documentation as: CDLPIERCING(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLRICKSHAWMAN

The talib.CDLRICKSHAWMAN() function is used to calculate Rickshaw Man (K-line chart: Rickshaw Man).

The return value of the talib.CDLRICKSHAWMAN() function is: a one-dimensional array. array

talib.CDLRICKSHAWMAN(inPriceOHLC)

The inPriceOHLC parameter is used to specify K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLRICKSHAWMAN(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLRICKSHAWMAN(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLRICKSHAWMAN(records);
    Log(ret);
}

The CDLRICKSHAWMAN() function is described in the talib library documentation as: CDLRICKSHAWMAN(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLRISEFALL3METHODS

The talib.CDLRISEFALL3METHODS() function is used to calculate Rising/Falling Three Methods (K-line chart: Rising/Falling Three Methods).

The return value of the talib.CDLRISEFALL3METHODS() function is: a one-dimensional array. array

talib.CDLRISEFALL3METHODS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLRISEFALL3METHODS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLRISEFALL3METHODS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLRISEFALL3METHODS(records);
    Log(ret);
}

The CDLRISEFALL3METHODS() function is described in the talib library documentation as: CDLRISEFALL3METHODS(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLSEPARATINGLINES

The talib.CDLSEPARATINGLINES() function is used to calculate Separating Lines (K-line chart: Separating Lines).

The return value of the talib.CDLSEPARATINGLINES() function is a one-dimensional array. array

talib.CDLSEPARATINGLINES(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLSEPARATINGLINES(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLSEPARATINGLINES(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLSEPARATINGLINES(records);
    Log(ret);
}

The CDLSEPARATINGLINES() function is described in the talib library documentation as: CDLSEPARATINGLINES(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLSHOOTINGSTAR

The talib.CDLSHOOTINGSTAR() function is used to calculate the Shooting Star (K-line chart: Shooting Star).

The return value of the talib.CDLSHOOTINGSTAR() function is a one-dimensional array. array

talib.CDLSHOOTINGSTAR(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLSHOOTINGSTAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLSHOOTINGSTAR(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLSHOOTINGSTAR(records);
    Log(ret);
}

The CDLSHOOTINGSTAR() function is described in the talib library documentation as: CDLSHOOTINGSTAR(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLSHORTLINE

The talib.CDLSHORTLINE() function is used to calculate the Short Line Candle (K-line chart: Short Line).

The return value of the talib.CDLSHORTLINE() function is: a one-dimensional array. array

talib.CDLSHORTLINE(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLSHORTLINE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLSHORTLINE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLSHORTLINE(records);
    Log(ret);
}

The CDLSHORTLINE() function is described in the talib library documentation as: CDLSHORTLINE(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLSPINNINGTOP

The talib.CDLSPINNINGTOP() function is used to calculate Spinning Top (K-line chart: Spinning Top).

The return value of the talib.CDLSPINNINGTOP() function is: a one-dimensional array. array

talib.CDLSPINNINGTOP(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLSPINNINGTOP(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLSPINNINGTOP(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLSPINNINGTOP(records);
    Log(ret);
}

The CDLSPINNINGTOP() function is described in the talib library documentation as: CDLSPINNINGTOP(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLSTALLEDPATTERN

The talib.CDLSTALLEDPATTERN() function is used to calculate Stalled Pattern (K-line chart: Stalled Pattern).

The return value of the talib.CDLSTALLEDPATTERN() function is: a one-dimensional array. array

talib.CDLSTALLEDPATTERN(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLSTALLEDPATTERN(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLSTALLEDPATTERN(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLSTALLEDPATTERN(records);
    Log(ret);
}

The CDLSTALLEDPATTERN() function is described in the talib library documentation as: CDLSTALLEDPATTERN(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLSTICKSANDWICH

The talib.CDLSTICKSANDWICH() function is used to calculate the Stick Sandwich (K-line chart: Stick Sandwich).

The return value of the talib.CDLSTICKSANDWICH() function is a one-dimensional array. array

talib.CDLSTICKSANDWICH(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLSTICKSANDWICH(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLSTICKSANDWICH(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLSTICKSANDWICH(records);
    Log(ret);
}

The CDLSTICKSANDWICH() function is described in the talib library documentation as: CDLSTICKSANDWICH(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLTAKURI

The talib.CDLTAKURI() function is used to calculate Takuri (dragonfly doji with a very long lower shadow line) (K-line chart: Takuri).

The return value of the talib.CDLTAKURI() function is a one-dimensional array. array

talib.CDLTAKURI(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLTAKURI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLTAKURI(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLTAKURI(records);
    Log(ret);
}

The CDLTAKURI() function is described in the talib library documentation as: CDLTAKURI(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLTASUKIGAP

The talib.CDLTASUKIGAP() function is used to calculate the Tasuki Gap (K-line chart: Tasuki Gap).

The return value of the talib.CDLTASUKIGAP() function is a one-dimensional array. array

talib.CDLTASUKIGAP(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLTASUKIGAP(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLTASUKIGAP(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLTASUKIGAP(records);
    Log(ret);
}

The CDLTASUKIGAP() function is described in the talib library documentation as: CDLTASUKIGAP(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLTHRUSTING

The talib.CDLTHRUSTING() function is used to calculate the Thrusting Pattern (K-line chart: Thrusting Pattern).

The return value of the talib.CDLTHRUSTING() function is: a one-dimensional array. array

talib.CDLTHRUSTING(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLTHRUSTING(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLTHRUSTING(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLTHRUSTING(records);
    Log(ret);
}

The CDLTHRUSTING() function is described in the talib library documentation as: CDLTHRUSTING(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLTRISTAR

The talib.CDLTRISTAR() function is used to calculate the Tristar Pattern (K-line chart: Tristar Pattern).

The return value of the talib.CDLTRISTAR() function is: a one-dimensional array. array

talib.CDLTRISTAR(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLTRISTAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLTRISTAR(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLTRISTAR(records);
    Log(ret);
}

The CDLTRISTAR() function is described in the talib library documentation as: CDLTRISTAR(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLUNIQUE3RIVER

The talib.CDLUNIQUE3RIVER() function is used to calculate the Unique 3 River (K-line chart: Unique 3 River).

The return value of the talib.CDLUNIQUE3RIVER() function is: a one-dimensional array. array

talib.CDLUNIQUE3RIVER(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLUNIQUE3RIVER(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLUNIQUE3RIVER(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLUNIQUE3RIVER(records);
    Log(ret);
}

The CDLUNIQUE3RIVER() function is described in the talib library documentation as: CDLUNIQUE3RIVER(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLUPSIDEGAP2CROWS

The talib.CDLUPSIDEGAP2CROWS() function is used to calculate Upside Gap Two Crows (K-line chart: Upside Gap Two Crows).

The return value of the talib.CDLUPSIDEGAP2CROWS() function is: a one-dimensional array. array

talib.CDLUPSIDEGAP2CROWS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLUPSIDEGAP2CROWS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLUPSIDEGAP2CROWS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLUPSIDEGAP2CROWS(records);
    Log(ret);
}

The CDLUPSIDEGAP2CROWS() function is described in the talib library documentation as: CDLUPSIDEGAP2CROWS(Records[Open,High,Low,Close]) = Array(outInteger)

talib.CDLXSIDEGAP3METHODS

The talib.CDLXSIDEGAP3METHODS() function is used to calculate Upside/Downside Gap Three Methods (K-line chart: Upside/Downside Gap Three Methods).

The return value of the talib.CDLXSIDEGAP3METHODS() function is: a one-dimensional array. array

talib.CDLXSIDEGAP3METHODS(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CDLXSIDEGAP3METHODS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CDLXSIDEGAP3METHODS(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CDLXSIDEGAP3METHODS(records);
    Log(ret);
}

The CDLXSIDEGAP3METHODS() function is described in the talib library documentation as: CDLXSIDEGAP3METHODS(Records[Open,High,Low,Close]) = Array(outInteger)

talib.AD

The talib.AD() function is used to calculate the Chaikin A/D Line (line stochastic indicator).

The return value of the talib.AD() function is: a one-dimensional array. array

talib.AD(inPriceHLCV)

The inPriceHLCV parameter is used to specify the K-line data. inPriceHLCV true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.AD(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.AD(records.High, records.Low, records.Close, records.Volume)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.AD(records);
    Log(ret);
}

The AD() function is described in the talib library documentation as: AD(Records[High,Low,Close,Volume]) = Array(outReal)

talib.ADOSC

The talib.ADOSC() function is used to calculate the Chaikin A/D Oscillator (Chaikin Oscillator).

The return value of the talib.ADOSC() function is a one-dimensional array. array

talib.ADOSC(inPriceHLCV) talib.ADOSC(inPriceHLCV, optInFastPeriod, optInSlowPeriod)

The inPriceHLCV parameter is used to specify the K-line data. inPriceHLCV true {@struct/Record Record} structure array The optInFastPeriod parameter is used to set the fast period. optInFastPeriod false number The optInSlowPeriod parameter is used to set the slow period. optInSlowPeriod false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ADOSC(records, 3, 10)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ADOSC(records.High, records.Low, records.Close, records.Volume, 3, 10)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ADOSC(records, 3, 10);
    Log(ret);
}

The ADOSC() function is described in the talib library documentation as: ADOSC(Records[High,Low,Close,Volume],Fast Period = 3,Slow Period = 10) = Array(outReal)

talib.OBV

The talib.OBV() function is used to calculate On Balance Volume (energy tide).

The return value of the talib.OBV() function is a one-dimensional array. array

talib.OBV(inReal) talib.OBV(inReal, inPriceV)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays The inPriceV parameter is used to specify the K-line data. inPriceV false {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.OBV(records, records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.OBV(records.Close, records.Volume)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.OBV(records);
    Log(ret);
}

The OBV() function is described in the talib library documentation as: OBV(Records[Close],Records[Volume]) = Array(outReal)

talib.ACOS

The talib.ACOS() function is used to calculate Vector Trigonometric ACos (inverse cosine function).

The return value of the talib.ACOS() function is a one-dimensional array. array

talib.ACOS(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-1, 0, 1]
    var ret = talib.ACOS(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-1.0, 0, 1.0]
    ret = talib.ACOS(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-1, 0, 1};
    auto ret = talib.ACOS(data);
    Log(ret);
}

The ACOS() function is described in the talib library documentation as: ACOS(Records[Close]) = Array(outReal)

talib.ASIN

The talib.ASIN() function is used to calculate the Vector Trigonometric ASin (inverse sine function).

The return value of the talib.ASIN() function is a one-dimensional array. array

talib.ASIN(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-1, 0, 1]
    var ret = talib.ASIN(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-1.0, 0, 1.0]
    ret = talib.ASIN(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-1, 0, 1};
    auto ret = talib.ASIN(data);
    Log(ret);
}

The ASIN() function is described in the talib library documentation as: ASIN(Records[Close]) = Array(outReal)

talib.ATAN

The talib.ATAN() function is used to calculate the Vector Trigonometric ATan (inverse tangent function).

The return value of the talib.ATAN() function is: a one-dimensional array. array

talib.ATAN(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-3.14/2, 0, 3.14/2]
    var ret = talib.ATAN(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-3.14/2, 0, 3.14/2]
    ret = talib.ATAN(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-3.14/2, 0, 3.14/2};
    auto ret = talib.ATAN(data);
    Log(ret);
}

The ATAN() function is described in the talib library documentation as: ATAN(Records[Close]) = Array(outReal)

talib.CEIL

The talib.CEIL() function is used to calculate Vector Ceil (rounding function).

The return value of the talib.CEIL() function is a one-dimensional array. array

talib.CEIL(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CEIL(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CEIL(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CEIL(records);
    Log(ret);
}

The CEIL() function is described in the talib library documentation as: CEIL(Records[Close]) = Array(outReal)

talib.COS

The talib.COS() function is used to calculate the Vector Trigonometric Cos (cosine function).

The return value of the talib.COS() function is: a one-dimensional array. array

talib.COS(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-3.14, 0, 3.14]
    var ret = talib.COS(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-3.14, 0, 3.14]
    ret = talib.COS(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-3.14, 0, 3.14};
    auto ret = talib.COS(data);
    Log(ret);
}

The COS() function is described in the talib library documentation as: COS(Records[Close]) = Array(outReal)

talib.COSH

The talib.COSH() function is used to calculate Vector Trigonometric Cosh (hyperbolic cosine value).

The return value of the talib.COSH() function is a one-dimensional array. array

talib.COSH(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-1, 0, 1]
    var ret = talib.COSH(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-1.0, 0, 1.0]
    ret = talib.COSH(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-1, 0, 1};
    auto ret = talib.COSH(data);
    Log(ret);
}

The COSH() function is described in the talib library documentation as: COSH(Records[Close]) = Array(outReal)

talib.EXP

The talib.EXP() function is used to calculate the Vector Arithmetic Exp (exponential function).

The return value of the talib.EXP() function is: a one-dimensional array. array

talib.EXP(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [0, 1, 2]
    var ret = talib.EXP(data)    // e^0, e^1, e^2
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [0, 1.0, 2.0]
    ret = talib.EXP(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {0, 1.0, 2.0};
    auto ret = talib.EXP(data);
    Log(ret);
}

The EXP() function is described in the talib library documentation as: EXP(Records[Close]) = Array(outReal)

talib.FLOOR

The talib.FLOOR() function is used to calculate the Vector Floor (rounded down).

The return value of the talib.FLOOR() function is a one-dimensional array. array

talib.FLOOR(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.FLOOR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.FLOOR(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.FLOOR(records);
    Log(ret);
}

The FLOOR() function is described in the talib library documentation as: FLOOR(Records[Close]) = Array(outReal)

talib.LN

The talib.LN() function is used to calculate the Vector Log Natural (natural logarithm).

The return value of the talib.LN() function is a one-dimensional array. array

talib.LN(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [1, 2, 3]
    var ret = talib.LN(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [1.0, 2.0, 3.0]
    ret = talib.LN(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {1, 2, 3};
    auto ret = talib.LN(data);
    Log(ret);
}

The LN() function is described in the talib library documentation as: LN(Records[Close]) = Array(outReal)

talib.LOG10

The talib.LOG10() function is used to calculate Vector Log10 (logarithmic function).

The return value of the talib.LOG10() function is a one-dimensional array. array

talib.LOG10(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [10, 100, 1000]
    var ret = talib.LOG10(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [10.0, 100.0, 1000.0]
    ret = talib.LOG10(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {10, 100, 1000};
    auto ret = talib.LOG10(data);
    Log(ret);
}

The LOG10() function is described in the talib library documentation as: LOG10(Records[Close]) = Array(outReal)

talib.SIN

The talib.SIN() function is used to calculate Vector Trigonometric Sin (sine value).

The return value of the talib.SIN() function is a one-dimensional array. array

talib.SIN(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-3.14/2, 0, 3.14/2]
    var ret = talib.SIN(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-3.14/2, 0, 3.14/2]
    ret = talib.SIN(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-3.14/2, 0, 3.14/2};
    auto ret = talib.SIN(data);
    Log(ret);
}

The SIN() function is described in the talib library documentation as: SIN(Records[Close]) = Array(outReal)

talib.SINH

The talib.SINH() function is used to calculate the Vector Trigonometric Sinh (hyperbolic sine function).

The return value of the talib.SINH() function is: a one-dimensional array. array

talib.SINH(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-1, 0, 1]
    var ret = talib.SINH(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-1.0, 0, 1.0]
    ret = talib.SINH(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-1, 0, 1};
    auto ret = talib.SINH(data);
    Log(ret);
}

The SINH() function is described in the talib library documentation as: SINH(Records[Close]) = Array(outReal)

talib.SQRT

The talib.SQRT() function is used to calculate the Vector Square Root (square root).

The return value of the talib.SQRT() function is: a one-dimensional array. array

talib.SQRT(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [4, 64, 100]
    var ret = talib.SQRT(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [4.0, 64.0, 100.0]
    ret = talib.SQRT(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {4, 64, 100};
    auto ret = talib.SQRT(data);
    Log(ret);
}

The SQRT() function is described in the talib library documentation as: SQRT(Records[Close]) = Array(outReal)

talib.TAN

The talib.TAN() function is used to calculate the Vector Trigonometric Tan (tangent).

The return value of the talib.TAN() function is a one-dimensional array. array

talib.TAN(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-1, 0, 1]
    var ret = talib.TAN(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-1.0, 0, 1.0]
    ret = talib.TAN(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-1, 0, 1};
    auto ret = talib.TAN(data);
    Log(ret);
}

The TAN() function is described in the talib library documentation as: TAN(Records[Close]) = Array(outReal)

talib.TANH

The talib.TANH() function is used to calculate the Vector Trigonometric Tanh (hyperbolic tangent function).

The return value of the talib.TANH() function is: a one-dimensional array. array

talib.TANH(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var data = [-1, 0, 1]
    var ret = talib.TANH(data)
    Log(ret)
}

import talib
import numpy as np
def main():
    data = [-1.0, 0, 1.0]
    ret = talib.TANH(np.array(data))
    Log(ret)

void main() {
    std::vector<double> data = {-1, 0, 1};
    auto ret = talib.TANH(data);
    Log(ret);
}

The TANH() function is described in the talib library documentation as: TANH(Records[Close]) = Array(outReal)

talib.MAX

The talib.MAX() function is used to calculate the highest (maximum) value for a specific period.

The return value of the talib.MAX() function is: a one-dimensional array. array

talib.MAX(inReal) talib.MAX(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MAX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MAX(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MAX(records);
    Log(ret);
}

The MAX() function is described in the talib library documentation as: MAX(Records[Close],Time Period = 30) = Array(outReal)

talib.MAXINDEX

The talib.MAXINDEX() function is used to calculate the index of the highest value in the specified period (maximum index).

The return value of the talib.MAXINDEX() function is: a one-dimensional array. array

talib.MAXINDEX(inReal) talib.MAXINDEX(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MAXINDEX(records, 5)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MAXINDEX(records.Close, 5)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MAXINDEX(records, 5);
    Log(ret);
}

The MAXINDEX() function is described in the talib library documentation as: MAXINDEX(Records[Close],Time Period = 30) = Array(outInteger)

talib.MIN

The talib.MIN() function is used to calculate the lowest value (minimum value)** for the specified period.

The return value of the talib.MIN() function is: a one-dimensional array. array

talib.MIN(inReal) talib.MIN(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MIN(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MIN(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MIN(records);
    Log(ret);
}

The MIN() function is described in the talib library documentation as: MIN(Records[Close],Time Period = 30) = Array(outReal)

talib.MININDEX

The talib.MININDEX() function is used to calculate the lowest value index (minimum value index) for the specified period.

The return value of the talib.MININDEX() function is: a one-dimensional array. array

talib.MININDEX(inReal) talib.MININDEX(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MININDEX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MININDEX(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MININDEX(records);
    Log(ret);
}

The MININDEX() function is described in the talib library documentation as: MININDEX(Records[Close],Time Period = 30) = Array(outInteger)

talib.MINMAX

The talib.MINMAX() function is used to calculate the lowest and highest (minimum and maximum) values for the specified period.

The return value of the talib.MINMAX() function is a two-dimensional array. The first element of this two-dimensional array is the array of minimum values, and the second element is the array of maximum values. array

talib.MINMAX(inReal) talib.MINMAX(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MINMAX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MINMAX(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MINMAX(records);
    Log(ret);
}

The MINMAX() function is described in the talib library documentation as: MINMAX(Records[Close],Time Period = 30) = [Array(outMin),Array(outMax)]

talib.MINMAXINDEX

The talib.MINMAXINDEX() function is used to calculate the index of the lowest and highest (minimum and maximum index) values in the specified period.

The return value of the talib.MINMAXINDEX() function is: a two-dimensional array. The first element of this two-dimensional array is the minimum indexed array, and the second element is the maximum indexed array. array

talib.MINMAXINDEX(inReal) talib.MINMAXINDEX(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MINMAXINDEX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MINMAXINDEX(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MINMAXINDEX(records);
    Log(ret);
}

The MINMAXINDEX() function is described in the talib library documentation as: MINMAXINDEX(Records[Close],Time Period = 30) = [Array(outMinIdx),Array(outMaxIdx)]

talib.SUM

The talib.SUM() function is used to calculate Summation.

The return value of the talib.SUM() function is: a one-dimensional array. array

talib.SUM(inReal) talib.SUM(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.SUM(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.SUM(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.SUM(records);
    Log(ret);
}

The SUM() function is described in the talib library documentation as: SUM(Records[Close],Time Period = 30) = Array(outReal)

talib.HT_DCPERIOD

The talib.HT_DCPERIOD() function is used to calculate the Hilbert Transform - Dominant Cycle Period (Hilbert Transform, Dominant Period).

The return value of the talib.HT_DCPERIOD() function is: a one-dimensional array. array

talib.HT_DCPERIOD(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.HT_DCPERIOD(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.HT_DCPERIOD(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.HT_DCPERIOD(records);
    Log(ret);
}

The HT_DCPERIOD() function is described in the talib library documentation as: HT_DCPERIOD(Records[Close]) = Array(outReal)

talib.HT_DCPHASE

The talib.HT_DCPHASE() function is used to calculate the Hilbert Transform - Dominant Cycle Phase (Hilbert Transform, Dominant Cycle Phase).

The return value of the talib.HT_DCPHASE() function is: a one-dimensional array. array

talib.HT_DCPHASE(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.HT_DCPHASE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.HT_DCPHASE(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.HT_DCPHASE(records);
    Log(ret);
}

The HT_DCPHASE() function is described in the talib library documentation as: HT_DCPHASE(Records[Close]) = Array(outReal)

talib.HT_PHASOR

The talib.HT_PHASOR() function is used to calculate the Hilbert Transform - Phasor Components (Hilbert Transform, Phase Components).

The return value of the talib.HT_PHASOR() function is a two-dimensional array. array

talib.HT_PHASOR(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.HT_PHASOR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.HT_PHASOR(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.HT_PHASOR(records);
    Log(ret);
}

The HT_PHASOR() function is described in the talib library documentation as: HT_PHASOR(Records[Close]) = [Array(outInPhase),Array(outQuadrature)]

talib.HT_SINE

The talib.HT_SINE() function is used to calculate the Hilbert Transform - SineWave (Hilbert Transform, Sine Wave).

The return value of the talib.HT_SINE() function is: a two-dimensional array. array

talib.HT_SINE(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.HT_SINE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.HT_SINE(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.HT_SINE(records);
    Log(ret);
}

The HT_SINE() function is described in the talib library documentation as: HT_SINE(Records[Close]) = [Array(outSine),Array(outLeadSine)]

talib.HT_TRENDMODE

The talib.HT_TRENDMODE() function is used to calculate the Hilbert Transform - Trend and Cycle Mode.

The return value of the talib.HT_TRENDMODE() function is: a one-dimensional array. array

talib.HT_TRENDMODE(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.HT_TRENDMODE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.HT_TRENDMODE(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.HT_TRENDMODE(records);
    Log(ret);
}

The HT_TRENDMODE() function is described in the talib library documentation as: HT_TRENDMODE(Records[Close]) = Array(outInteger)

talib.ATR

The talib.ATR() function is used to calculate the Average True Range.

The return value of the talib.ATR() function is a one-dimensional array. array

talib.ATR(inPriceHLC) talib.ATR(inPriceHLC, optInTimePeriod)

The inPriceHLC parameter is used to specify the K-line data. inPriceHLC true {@struct/Record Record} structure array The optInTimePeriod parameter is used to set the period, the default value is 14. optInTimePeriod false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ATR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ATR(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ATR(records);
    Log(ret);
}

The ATR() function is described in the talib library documentation as: ATR(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.NATR

The talib.NATR() function is used to calculate the Normalized Average True Range.

The return value of the talib.NATR() function is a one-dimensional array. array

talib.NATR(inPriceHLC) talib.NATR(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.NATR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.NATR(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.NATR(records);
    Log(ret);
}

The NATR() function is described in the talib library documentation as: NATR(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.TRANGE

The talib.TRANGE() function is used to calculate the True Range.

The return value of the talib.TRANGE() function is: a one-dimensional array. array

talib.TRANGE(inPriceHLC)

The inPriceHLC parameter is used to specify the K-line data. inPriceHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.TRANGE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.TRANGE(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.TRANGE(records);
    Log(ret);
}

The TRANGE() function is described in the talib library documentation as: TRANGE(Records[High,Low,Close]) = Array(outReal)

talib.BBANDS

The talib.BBANDS() function is used to calculate Bollinger Bands.

The return value of the talib.BBANDS() function is: a two-dimensional array. The array contains three elements which are: the upper line array, the middle line array, and the lower line array. array

talib.BBANDS(inReal) talib.BBANDS(inReal, optInTimePeriod) talib.BBANDS(inReal, optInTimePeriod, optInNbDevUp) talib.BBANDS(inReal, optInTimePeriod, optInNbDevUp, optInNbDevDn) talib.BBANDS(inReal, optInTimePeriod, optInNbDevUp, optInNbDevDn, optInMAType)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays The optInTimePeriod parameter is used to set the period, the default value is 5. optInTimePeriod false number The optInNbDevUp parameter is used to set the upline multiplier, the default value is 2. optInNbDevUp false number The optInNbDevDn parameter is used to set the lower line multiplier, the default value is 2. optInNbDevDn false number The optInMAType parameter is used to set the mean type, the default value is 0. optInMAType false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.BBANDS(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.BBANDS(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.BBANDS(records);
    Log(ret);
}

The BBANDS() function is described in the talib library documentation as: BBANDS(Records[Close],Time Period = 5,Deviations up = 2,Deviations down = 2,MA Type = 0) = [Array(outRealUpperBand),Array(outRealMiddleBand),Array(outRealLowerBand)]

talib.DEMA

The talib.DEMA() function is used to calculate the Double Exponential Moving Average.

The return value of the talib.DEMA() function is a one-dimensional array. array

talib.DEMA(inReal) talib.DEMA(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.DEMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.DEMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.DEMA(records);
    Log(ret);
}

The DEMA() function is described in the talib library documentation as: DEMA(Records[Close],Time Period = 30) = Array(outReal)

talib.EMA

The talib.EMA() function is used to calculate the Exponential Moving Average.

The return value of the talib.EMA() function is a one-dimensional array. array

talib.EMA(inReal) talib.EMA(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.EMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.EMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.EMA(records);
    Log(ret);
}

The EMA() function is described in the talib library documentation as: EMA(Records[Close],Time Period = 30) = Array(outReal)

talib.HT_TRENDLINE

The talib.HT_TRENDLINE() function is used to calculate the Hilbert Transform - Instantaneous Trendline (Hilbert Transform, Instantaneous Trend).

The return value of the talib.HT_TRENDLINE() function is: a one-dimensional array. array

talib.HT_TRENDLINE(inReal)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays

function main() {
    var records = exchange.GetRecords()
    var ret = talib.HT_TRENDLINE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.HT_TRENDLINE(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.HT_TRENDLINE(records);
    Log(ret);
}

The HT_TRENDLINE() function is described in the talib library documentation as: HT_TRENDLINE(Records[Close]) = Array(outReal)

talib.KAMA

The talib.KAMA() function is used to calculate the Kaufman Adaptive Moving Average.

The return value of the talib.KAMA() function is: a one-dimensional array. array

talib.KAMA(inReal) talib.KAMA(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.KAMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.KAMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.KAMA(records);
    Log(ret);
}

The KAMA() function is described in the talib library documentation as: KAMA(Records[Close],Time Period = 30) = Array(outReal)

talib.MA

The talib.MA() function is used to calculate the Moving average.

The return value of the talib.MA() function is: a one-dimensional array. array

talib.MA(inReal) talib.MA(inReal, optInTimePeriod) talib.MA(inReal, optInTimePeriod, optInMAType)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MA(records);
    Log(ret);
}

The MA() function is described in the talib library documentation as: MA(Records[Close],Time Period = 30,MA Type = 0) = Array(outReal)

talib.MAMA

The talib.MAMA() function is used to calculate the MESA Adaptive Moving Average.

The return value of the talib.MAMA() function is: a two-dimensional array. array

talib.MAMA(inReal) talib.MAMA(inReal, optInFastLimit) talib.MAMA(inReal, optInFastLimit, optInSlowLimit)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays The optInFastLimit parameter is used to set the Fast Limit, the default value is 0.5. optInFastLimit false number The optInSlowLimit parameter is used to set the Slow Limit, the default value is 0.05. optInSlowLimit false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MAMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MAMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MAMA(records);
    Log(ret);
}

The MAMA() function is described in the talib library documentation as: MAMA(Records[Close],Fast Limit = 0.5,Slow Limit = 0.05) = [Array(outMAMA),Array(outFAMA)]

talib.MIDPOINT

The talib.MIDPOINT() function is used to calculate the MidPoint over period (midpoint).

The return value of the talib.MIDPOINT() function is a one-dimensional array. array

talib.MIDPOINT(inReal) talib.MIDPOINT(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MIDPOINT(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MIDPOINT(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MIDPOINT(records);
    Log(ret);
}

The MIDPOINT() function is described in the talib library documentation as: MIDPOINT(Records[Close],Time Period = 14) = Array(outReal)

talib.MIDPRICE

The talib.MIDPRICE() function is used to calculate the Midpoint Price over period (midpoint price).

The return value of the talib.MIDPRICE() function is a one-dimensional array. array

talib.MIDPRICE(inPriceHL) talib.MIDPRICE(inPriceHL, optInTimePeriod)

The inPriceHL parameter is used to specify the K-line data. inPriceHL true {@struct/Record Record} structure array The optInTimePeriod parameter is used to set the period, the default value is 14. optInTimePeriod false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MIDPRICE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MIDPRICE(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MIDPRICE(records);
    Log(ret);
}

The MIDPRICE() function is described in the talib library documentation as: MIDPRICE(Records[High,Low],Time Period = 14) = Array(outReal)

talib.SAR

The talib.SAR() function is used to calculate the Parabolic SAR.

The return value of the talib.SAR() function is: a one-dimensional array. array

talib.SAR(inPriceHL) talib.SAR(inPriceHL, optInAcceleration) talib.SAR(inPriceHL, optInAcceleration, optInMaximum)

The inPriceHL parameter is used to specify the K-line data. inPriceHL true {@struct/Record Record} structure array The optInAcceleration parameter is used to set the Acceleration Factor, the default value is 0.02. optInAcceleration false number The optInMaximum parameter is used to set the AF Maximum, the default value is 0.2. optInMaximum false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.SAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.SAR(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.SAR(records);
    Log(ret);
}

The SAR() function is described in the talib library documentation as: SAR(Records[High,Low],Acceleration Factor = 0.02,AF Maximum = 0.2) = Array(outReal)

talib.SAREXT

The talib.SAREXT() function is used to calculate the Parabolic SAR - Extended (enhanced parabolic steering).

The return value of the talib.SAREXT() function is a one-dimensional array. array

talib.SAREXT(inPriceHL) talib.SAREXT(inPriceHL, optInStartValue) talib.SAREXT(inPriceHL, optInStartValue, optInOffsetOnReverse) talib.SAREXT(inPriceHL, optInStartValue, optInOffsetOnReverse, optInAccelerationInitLong) talib.SAREXT(inPriceHL, optInStartValue, optInOffsetOnReverse, optInAccelerationInitLong, optInAccelerationLong) talib.SAREXT(inPriceHL, optInStartValue, optInOffsetOnReverse, optInAccelerationInitLong, optInAccelerationLong, optInAccelerationMaxLong) talib.SAREXT(inPriceHL, optInStartValue, optInOffsetOnReverse, optInAccelerationInitLong, optInAccelerationLong, optInAccelerationMaxLong, optInAccelerationInitShort) talib.SAREXT(inPriceHL, optInStartValue, optInOffsetOnReverse, optInAccelerationInitLong, optInAccelerationLong, optInAccelerationMaxLong, optInAccelerationInitShort, optInAccelerationShort) talib.SAREXT(inPriceHL, optInStartValue, optInOffsetOnReverse, optInAccelerationInitLong, optInAccelerationLong, optInAccelerationMaxLong, optInAccelerationInitShort, optInAccelerationShort, optInAccelerationMaxShort)

The inPriceHL parameter is used to specify the K-line data. inPriceHL true {@struct/Record Record} structure array The optInStartValue parameter is used to set the Start Value, the default value is 0. optInStartValue false number The optInOffsetOnReverse parameter is used to set Offset on Reverse, the default value is 0. optInOffsetOnReverse false number The optInAccelerationInitLong parameter is used to set the AF Init Long, the default value is 0.02. optInAccelerationInitLong false number The optInAccelerationLong parameter is used to set the AF Long, the default value is 0.02. optInAccelerationLong false number The optInAccelerationMaxLong parameter is used to set the AF Max Long, the default value is 0.2. optInAccelerationMaxLong false number The optInAccelerationInitShort parameter is used to set AF Init Short, the default value is 0.02. optInAccelerationInitShort false number The optInAccelerationShort parameter is used to set AF Short, the default value is 0.02. optInAccelerationShort false number The optInAccelerationMaxShort parameter is used to set AF Max Short, the default value is 0.2. optInAccelerationMaxShort false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.SAREXT(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.SAREXT(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.SAREXT(records);
    Log(ret);
}

The SAREXT() function is described in the talib library documentation as: SAREXT(Records[High,Low],Start Value = 0,Offset on Reverse = 0,AF Init Long = 0.02,AF Long = 0.02,AF Max Long = 0.2,AF Init Short = 0.02,AF Short = 0.02,AF Max Short = 0.2) = Array(outReal)

talib.SMA

The talib.SMA() function is used to calculate Simple Moving Average.

The return value of the talib.SMA() function is: a one-dimensional array. array

talib.SMA(inReal) talib.SMA(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.SMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.SMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.SMA(records);
    Log(ret);
}

The SMA() function is described in the talib library documentation as: SMA(Records[Close],Time Period = 30) = Array(outReal)

talib.T3

The talib.T3() function is used to calculate the Triple Exponential Moving Average (T3) (triple exponential moving average).

The return value of the talib.T3() function is a one-dimensional array. array

talib.T3(inReal) talib.T3(inReal, optInTimePeriod) talib.T3(inReal, optInTimePeriod, optInVFactor)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.T3(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.T3(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.T3(records);
    Log(ret);
}

The T3() function is described in the talib library documentation as: T3(Records[Close],Time Period = 5,Volume Factor = 0.7) = Array(outReal)

talib.TEMA

The talib.TEMA() function is used to calculate Triple Exponential Moving Average.

The return value of the talib.TEMA() function is a one-dimensional array. array

talib.TEMA(inReal) talib.TEMA(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.TEMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.TEMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.TEMA(records);
    Log(ret);
}

The TEMA() function is described in the talib library documentation as: TEMA(Records[Close],Time Period = 30) = Array(outReal)

talib.TRIMA

The talib.TRIMA() function is used to calculate the Triangular Moving Average (tri-exponential moving average).

The return value of the talib.TRIMA() function is a one-dimensional array. array

talib.TRIMA(inReal) talib.TRIMA(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.TRIMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.TRIMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.TRIMA(records);
    Log(ret);
}

The TRIMA() function is described in the talib library documentation as: TRIMA(Records[Close],Time Period = 30) = Array(outReal)

talib.WMA

The talib.WMA() function is used to calculate the Weighted Moving Average (WMA).

The return value of the talib.WMA() function is a one-dimensional array. array

talib.WMA(inReal) talib.WMA(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.WMA(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.WMA(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.WMA(records);
    Log(ret);
}

The WMA() function is described in the talib library documentation as: WMA(Records[Close],Time Period = 30) = Array(outReal)

talib.LINEARREG

The talib.LINEARREG() function is used to calculate Linear Regression.

The return value of the talib.LINEARREG() function is a one-dimensional array. array

talib.LINEARREG(inReal) talib.LINEARREG(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.LINEARREG(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.LINEARREG(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.LINEARREG(records);
    Log(ret);
}

The LINEARREG() function is described in the talib library documentation as: LINEARREG(Records[Close],Time Period = 14) = Array(outReal)

talib.LINEARREG_ANGLE

The talib.LINEARREG_ANGLE() function is used to calculate the Linear Regression Angle.

The return value of the talib.LINEARREG_ANGLE() function is: a one-dimensional array. array

talib.LINEARREG_ANGLE(inReal) talib.LINEARREG_ANGLE(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.LINEARREG_ANGLE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.LINEARREG_ANGLE(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.LINEARREG_ANGLE(records);
    Log(ret);
}

The LINEARREG_ANGLE() function is described in the talib library documentation as: LINEARREG_ANGLE(Records[Close],Time Period = 14) = Array(outReal)

talib.LINEARREG_INTERCEPT

The talib.LINEARREG_INTERCEPT() function is used to calculate the Linear Regression Intercept.

The return value of the talib.LINEARREG_INTERCEPT() function is: a one-dimensional array. array

talib.LINEARREG_INTERCEPT(inReal) talib.LINEARREG_INTERCEPT(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.LINEARREG_INTERCEPT(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.LINEARREG_INTERCEPT(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.LINEARREG_INTERCEPT(records);
    Log(ret);
}

The LINEARREG_INTERCEPT() function is described in the talib library documentation as: LINEARREG_INTERCEPT(Records[Close],Time Period = 14) = Array(outReal)

talib.LINEARREG_SLOPE

The talib.LINEARREG_SLOPE() function is used to calculate the Linear Regression Slope.

The return value of the talib.LINEARREG_SLOPE() function is: a one-dimensional array. array

talib.LINEARREG_SLOPE(inReal) talib.LINEARREG_SLOPE(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.LINEARREG_SLOPE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.LINEARREG_SLOPE(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.LINEARREG_SLOPE(records);
    Log(ret);
}

The LINEARREG_SLOPE() function is described in the talib library documentation as: LINEARREG_SLOPE(Records[Close],Time Period = 14) = Array(outReal)

talib.STDDEV

The talib.STDDEV() function is used to calculate Standard Deviation.

The return value of the talib.STDDEV() function is: a one-dimensional array. array

talib.STDDEV(inReal) talib.STDDEV(inReal, optInTimePeriod) talib.STDDEV(inReal, optInTimePeriod, optInNbDev)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.STDDEV(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.STDDEV(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.STDDEV(records);
    Log(ret);
}

The STDDEV() function is described in the talib library documentation as: STDDEV(Records[Close],Time Period = 5,Deviations = 1) = Array(outReal)

talib.TSF

The talib.TSF() function is used to calculate Time Series Forecast.

The return value of the talib.TSF() function is a one-dimensional array. array

talib.TSF(inReal) talib.TSF(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.TSF(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.TSF(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.TSF(records);
    Log(ret);
}

The TSF() function is described in the talib library documentation as: TSF(Records[Close],Time Period = 14) = Array(outReal)

talib.VAR

The talib.VAR() function is used to calculate Variance.

The return value of the talib.VAR() function is: a one-dimensional array. array

talib.VAR(inReal) talib.VAR(inReal, optInTimePeriod) talib.VAR(inReal, optInTimePeriod, optInNbDev)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.VAR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.VAR(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.VAR(records);
    Log(ret);
}

The VAR() function is described in the talib library documentation as: VAR(Records[Close],Time Period = 5,Deviations = 1) = Array(outReal)

talib.ADX

The talib.ADX() function is used to calculate the Average Directional Movement Index.

The return value of the talib.ADX() function is a one-dimensional array. array

talib.ADX(inPriceHLC) talib.ADX(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ADX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ADX(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ADX(records);
    Log(ret);
}

The ADX() function is described in the talib library documentation as: ADX(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.ADXR

The talib.ADXR() function is used to calculate the Average Directional Movement Index Rating (assessment index).

The return value of the talib.ADXR() function is a one-dimensional array. array

talib.ADXR(inPriceHLC) talib.ADXR(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ADXR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ADXR(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ADXR(records);
    Log(ret);
}

The ADXR() function is described in the talib library documentation as: ADXR(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.APO

The talib.APO() function is used to calculate the Absolute Price Oscillator.

The return value of the talib.APO() function is: a one-dimensional array. array

talib.APO(inReal) talib.APO(inReal, optInFastPeriod) talib.APO(inReal, optInFastPeriod, optInSlowPeriod) talib.APO(inReal, optInFastPeriod, optInSlowPeriod, optInMAType)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.APO(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.APO(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.APO(records);
    Log(ret);
}

The APO() function is described in the talib library documentation as: APO(Records[Close],Fast Period = 12,Slow Period = 26,MA Type = 0) = Array(outReal)

talib.AROON

The talib.AROON() function is used to calculate the Aroon (Aroon indicator).

The return value of the talib.AROON() function is a two-dimensional array. array

talib.AROON(inPriceHL) talib.AROON(inPriceHL, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.AROON(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.AROON(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.AROON(records);
    Log(ret);
}

The AROON() function is described in the talib library documentation as: AROON(Records[High,Low],Time Period = 14) = [Array(outAroonDown),Array(outAroonUp)]

talib.AROONOSC

The talib.AROONOSC() function is used to calculate the Aroon Oscillator.

The return value of the talib.AROONOSC() function is: a one-dimensional array. array

talib.AROONOSC(inPriceHL) talib.AROONOSC(inPriceHL, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.AROONOSC(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.AROONOSC(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.AROONOSC(records);
    Log(ret);
}

The AROONOSC() function is described in the talib library documentation as: AROONOSC(Records[High,Low],Time Period = 14) = Array(outReal)

talib.BOP

The talib.BOP() function is used to calculate the Balance Of Power.

The return value of the talib.BOP() function is a one-dimensional array. array

talib.BOP(inPriceOHLC)

The inPriceOHLC parameter is used to specify the K-line data. inPriceOHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.BOP(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.BOP(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.BOP(records);
    Log(ret);
}

The BOP() function is described in the talib library documentation as: BOP(Records[Open,High,Low,Close]) = Array(outReal)

talib.CCI

The talib.CCI() function is used to calculate the Commodity Channel Index (homeopathic indicator).

The return value of the talib.CCI() function is a one-dimensional array. array

talib.CCI(inPriceHLC) talib.CCI(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CCI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CCI(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CCI(records);
    Log(ret);
}

The CCI() function is described in the talib library documentation as: CCI(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.CMO

The talib.CMO() function is used to calculate the Chande Momentum Oscillator (CMO).

The return value of the talib.CMO() function is: a one-dimensional array. array

talib.CMO(inReal) talib.CMO(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.CMO(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.CMO(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.CMO(records);
    Log(ret);
}

The CMO() function is described in the talib library documentation as: CMO(Records[Close],Time Period = 14) = Array(outReal)

talib.DX

The talib.DX() function is used to calculate the Directional Movement Index.

The return value of the talib.DX() function is: a one-dimensional array. array

talib.DX(inPriceHLC) talib.DX(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.DX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.DX(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.DX(records);
    Log(ret);
}

The DX() function is described in the talib library documentation as: DX(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.MACD

The talib.MACD() function is used to calculate Moving Average Convergence/Divergence (exponentially smoothed moving average).

The return value of the talib.MACD() function is: a two-dimensional array. array

talib.MACD(inReal) talib.MACD(inReal, optInFastPeriod) talib.MACD(inReal, optInFastPeriod, optInSlowPeriod) talib.MACD(inReal, optInFastPeriod, optInSlowPeriod, optInSignalPeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MACD(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MACD(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MACD(records);
    Log(ret);
}

The MACD() function is described in the talib library documentation as: MACD(Records[Close],Fast Period = 12,Slow Period = 26,Signal Period = 9) = [Array(outMACD),Array(outMACDSignal),Array(outMACDHist)]

talib.MACDEXT

The talib.MACDEXT() function is used to calculate MACD with controllable MA type.

The return value of the talib.MACDEXT() function is a two-dimensional array. array

talib.MACDEXT(inReal) talib.MACDEXT(inReal, optInFastPeriod) talib.MACDEXT(inReal, optInFastPeriod, optInFastMAType) talib.MACDEXT(inReal, optInFastPeriod, optInFastMAType, optInSlowPeriod) talib.MACDEXT(inReal, optInFastPeriod, optInFastMAType, optInSlowPeriod, optInSlowMAType) talib.MACDEXT(inReal, optInFastPeriod, optInFastMAType, optInSlowPeriod, optInSlowMAType, optInSignalPeriod) talib.MACDEXT(inReal, optInFastPeriod, optInFastMAType, optInSlowPeriod, optInSlowMAType, optInSignalPeriod, optInSignalMAType)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays The optInFastPeriod parameter is used to set the fast period, the default value is 12. optInFastPeriod false number The optInFastMAType parameter is used to set the fast average type, the default value is 0. optInFastMAType false number The optInSlowPeriod parameter is used to set the slow period, the default value is 26. optInSlowPeriod false number The optInSlowMAType parameter is used to set the slow mean type, the default value is 0. optInSlowMAType false number The optInSignalPeriod parameter is used to set the signal period, the default value is 9. optInSignalPeriod false number The optInSignalMAType parameter is used to set the signal mean type, the default value is 0. optInSignalMAType false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MACDEXT(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MACDEXT(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MACDEXT(records);
    Log(ret);
}

The MACDEXT() function is described in the talib library documentation as: MACDEXT(Records[Close],Fast Period = 12,Fast MA = 0,Slow Period = 26,Slow MA = 0,Signal Period = 9,Signal MA = 0) = [Array(outMACD),Array(outMACDSignal),Array(outMACDHist)]

talib.MACDFIX

The talib.MACDFIX() function is used to calculate Moving Average Convergence/Divergence Fix 12/26.

The return value of the talib.MACDFIX() function is a two-dimensional array. array

talib.MACDFIX(inReal) talib.MACDFIX(inReal, optInSignalPeriod)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays The optInSignalPeriod parameter is used to set the signal period, the default value is 9. optInSignalPeriod false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MACDFIX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MACDFIX(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MACDFIX(records);
    Log(ret);
}

The MACDFIX() function is described in the talib library documentation as: MACDFIX(Records[Close],Signal Period = 9) = [Array(outMACD),Array(outMACDSignal),Array(outMACDHist)]

talib.MFI

The talib.MFI() function is used to calculate the Money Flow Index.

The return value of the talib.MFI() function is a one-dimensional array. array

talib.MFI(inPriceHLCV) talib.MFI(inPriceHLCV, optInTimePeriod)

The inPriceHLCV parameter is used to specify the K-line data. inPriceHLCV true {@struct/Record Record} structure array The optInTimePeriod parameter is used to set the period, the default value is 14. optInTimePeriod false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MFI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MFI(records.High, records.Low, records.Close, records.Volume)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MFI(records);
    Log(ret);
}

The MFI() function is described in the talib library documentation as: MFI(Records[High,Low,Close,Volume],Time Period = 14) = Array(outReal)

talib.MINUS_DI

The talib.MINUS_DI() function is used to calculate the Minus Directional Indicator (negative indicator).

The return value of the talib.MINUS_DI() function is a one-dimensional array. array

talib.MINUS_DI(inPriceHLC) talib.MINUS_DI(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MINUS_DI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MINUS_DI(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MINUS_DI(records);
    Log(ret);
}

The MINUS_DI() function is described in the talib library documentation as: MINUS_DI(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.MINUS_DM

The talib.MINUS_DM() function is used to calculate the Minus Directional Movement (negative motion).

The return value of the talib.MINUS_DM() function is a one-dimensional array. array

talib.MINUS_DM(inPriceHL) talib.MINUS_DM(inPriceHL, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MINUS_DM(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MINUS_DM(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MINUS_DM(records);
    Log(ret);
}

The MINUS_DM() function is described in the talib library documentation as: MINUS_DM(Records[High,Low],Time Period = 14) = Array(outReal)

talib.MOM

The talib.MOM() function is used to calculate Momentum.

The return value of the talib.MOM() function is a one-dimensional array. array

talib.MOM(inReal) talib.MOM(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MOM(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MOM(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MOM(records);
    Log(ret);
}

The MOM() function is described in the talib library documentation as: MOM(Records[Close],Time Period = 10) = Array(outReal)

talib.PLUS_DI

The talib.PLUS_DI() function is used to calculate the Plus Directional Indicator.

The return value of the talib.PLUS_DI() function is: a one-dimensional array. array

talib.PLUS_DI(inPriceHLC) talib.PLUS_DI(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.PLUS_DI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.PLUS_DI(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.PLUS_DI(records);
    Log(ret);
}

The PLUS_DI() function is described in the talib library documentation as: PLUS_DI(Records[High,Low,Close],Time Period = 14) = Array(outReal)

talib.PLUS_DM

The talib.PLUS_DM() function is used to calculate Plus Directional Movement.

The return value of the talib.PLUS_DM() function is a one-dimensional array. array

talib.PLUS_DM(inPriceHL) talib.PLUS_DM(inPriceHL, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.PLUS_DM(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.PLUS_DM(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.PLUS_DM(records);
    Log(ret);
}

The PLUS_DM() function is described in the talib library documentation as: PLUS_DM(Records[High,Low],Time Period = 14) = Array(outReal)

talib.PPO

The talib.PPO() function is used to calculate the Percentage Price Oscillator.

The return value of the talib.PPO() function is a one-dimensional array. array

talib.PPO(inReal) talib.PPO(inReal, optInFastPeriod) talib.PPO(inReal, optInFastPeriod, optInSlowPeriod) talib.PPO(inReal, optInFastPeriod, optInSlowPeriod, optInMAType)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.PPO(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.PPO(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.PPO(records);
    Log(ret);
}

The PPO() function is described in the talib library documentation as: PPO(Records[Close],Fast Period = 12,Slow Period = 26,MA Type = 0) = Array(outReal)

talib.ROC

The talib.ROC() function is used to calculate Rate of change : ((price/prevPrice)-1)*100 (rate of change indicator).

The return value of the talib.ROC() function is a one-dimensional array. array

talib.ROC(inReal) talib.ROC(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ROC(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ROC(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ROC(records);
    Log(ret);
}

The ROC() function is described in the talib library documentation as: ROC(Records[Close],Time Period = 10) = Array(outReal)

talib.ROCP

The talib.ROCP() function is used to calculate Rate of change Percentage: (price-prevPrice)/prevPrice (rate of price change).

The return value of the talib.ROCP() function is: a one-dimensional array. array

talib.ROCP(inReal) talib.ROCP(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ROCP(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ROCP(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ROCP(records);
    Log(ret);
}

The ROCP() function is described in the talib library documentation as: ROCP(Records[Close],Time Period = 10) = Array(outReal)

talib.ROCR

The talib.ROCR() function is used to calculate the Rate of change ratio: (price/prevPrice) (price change ratio).

The return value of the talib.ROCR() function is a one-dimensional array. array

talib.ROCR(inReal) talib.ROCR(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ROCR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ROCR(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ROCR(records);
    Log(ret);
}

The ROCR() function is described in the talib library documentation as: ROCR(Records[Close],Time Period = 10) = Array(outReal)

talib.ROCR100

The talib.ROCR100() function is used to calculate Rate of change ratio 100 scale: (price/prevPrice)*100 (price change ratio).

The return value of the talib.ROCR100() function is: a one-dimensional array. array

talib.ROCR100(inReal) talib.ROCR100(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ROCR100(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ROCR100(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ROCR100(records);
    Log(ret);
}

The ROCR100() function is described in the talib library documentation as: ROCR100(Records[Close],Time Period = 10) = Array(outReal)

talib.RSI

The talib.RSI() function is used to calculate the Relative Strength Index.

The return value of the talib.RSI() function is a one-dimensional array. array

talib.RSI(inReal) talib.RSI(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.RSI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.RSI(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.RSI(records);
    Log(ret);
}

The RSI() function is described in the talib library documentation as: RSI(Records[Close],Time Period = 14) = Array(outReal)

talib.STOCH

The talib.STOCH() function is used to calculate the Stochastic (STOCH indicator).

The return value of the talib.STOCH() function is a two-dimensional array. array

talib.STOCH(inPriceHLC) talib.STOCH(inPriceHLC, optInFastK_Period) talib.STOCH(inPriceHLC, optInFastK_Period, optInSlowK_Period) talib.STOCH(inPriceHLC, optInFastK_Period, optInSlowK_Period, optInSlowK_MAType) talib.STOCH(inPriceHLC, optInFastK_Period, optInSlowK_Period, optInSlowK_MAType, optInSlowD_Period) talib.STOCH(inPriceHLC, optInFastK_Period, optInSlowK_Period, optInSlowK_MAType, optInSlowD_Period, optInSlowD_MAType)

The inPriceHLC parameter is used to specify the K-line data. inPriceHLC true {@struct/Record Record} structure array The optInFastK_Period parameter is used to set the Fast-K period, the default value is 5. optInFastK_Period false number The optInSlowK_Period parameter is used to set the Slow-K period, the default value is 3. optInSlowK_Period false number The optInSlowK_MAType parameter is used to set the Slow-K average type, the default value is 0. optInSlowK_MAType false number The optInSlowD_Period parameter is used to set the Slow-D period, the default value is 3. optInSlowD_Period false number The optInSlowD_MAType parameter is used to set the Slow-D average type, the default value is 0. optInSlowD_MAType false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.STOCH(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.STOCH(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.STOCH(records);
    Log(ret);
}

The STOCH() function is described in the talib library documentation as: STOCH(Records[High,Low,Close],Fast-K Period = 5,Slow-K Period = 3,Slow-K MA = 0,Slow-D Period = 3,Slow-D MA = 0) = [Array(outSlowK),Array(outSlowD)]

talib.STOCHF

The talib.STOCHF() function is used to calculate the Stochastic Fast (fast STOCH indicator).

The return value of the talib.STOCHF() function is a two-dimensional array. array

talib.STOCHF(inPriceHLC) talib.STOCHF(inPriceHLC, optInFastK_Period) talib.STOCHF(inPriceHLC, optInFastK_Period, optInFastD_Period) talib.STOCHF(inPriceHLC, optInFastK_Period, optInFastD_Period, optInFastD_MAType)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.STOCHF(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.STOCHF(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.STOCHF(records);
    Log(ret);
}

The STOCHF() function is described in the talib library documentation as: STOCHF(Records[High,Low,Close],Fast-K Period = 5,Fast-D Period = 3,Fast-D MA = 0) = [Array(outFastK),Array(outFastD)]

talib.STOCHRSI

The talib.STOCHRSI() function is used to calculate the Stochastic Relative Strength Index.

The return value of the talib.STOCHRSI() function is: a two-dimensional array. array

talib.STOCHRSI(inReal) talib.STOCHRSI(inReal, optInTimePeriod) talib.STOCHRSI(inReal, optInTimePeriod, optInFastK_Period) talib.STOCHRSI(inReal, optInTimePeriod, optInFastK_Period, optInFastD_Period) talib.STOCHRSI(inReal, optInTimePeriod, optInFastK_Period, optInFastD_Period, optInFastD_MAType)

The inReal parameter is used to specify the K-line data. inReal true {@struct/Record Record} structure arrays, numeric arrays The optInTimePeriod parameter is used to set the period, the default value is 14. optInTimePeriod false number The optInFastK_Period parameter is used to set the Fast-K period, the default value is 5. optInFastK_Period false number The optInFastD_Period parameter is used to set the Fast-D period, the default value is 3. optInFastD_Period false number The optInFastD_MAType parameter is used to set the Fast-D average type, the default value is 0. optInFastD_MAType false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.STOCHRSI(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.STOCHRSI(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.STOCHRSI(records);
    Log(ret);
}

The STOCHRSI() function is described in the talib library documentation as: STOCHRSI(Records[Close],Time Period = 14,Fast-K Period = 5,Fast-D Period = 3,Fast-D MA = 0) = [Array(outFastK),Array(outFastD)]

talib.TRIX

The talib.TRIX() function is used to calculate the 1-day Rate-Of-Change (ROC) of a Triple Smooth EMA.

The return value of the talib.TRIX() function is: a one-dimensional array. array

talib.TRIX(inReal) talib.TRIX(inReal, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.TRIX(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.TRIX(records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.TRIX(records);
    Log(ret);
}

The TRIX() function is described in the talib library documentation as: TRIX(Records[Close],Time Period = 30) = Array(outReal)

talib.ULTOSC

The talib.ULTOSC() function is used to calculate the Ultimate Oscillator.

The return value of the talib.ULTOSC() function is a one-dimensional array. array

talib.ULTOSC(inPriceHLC) talib.ULTOSC(inPriceHLC, optInTimePeriod1) talib.ULTOSC(inPriceHLC, optInTimePeriod1, optInTimePeriod2) talib.ULTOSC(inPriceHLC, optInTimePeriod1, optInTimePeriod2, optInTimePeriod3)

The inPriceHLC parameter is used to specify the K-line data. inPriceHLC true {@struct/Record Record} structure array The optInTimePeriod1 parameter is used to set the first period, the default value is 7. optInTimePeriod1 false number The optInTimePeriod2 parameter is used to set the second period, the default value is 14. optInTimePeriod2 false number The optInTimePeriod3 parameter is used to set the third period, the default value is 28. optInTimePeriod3 false number

function main() {
    var records = exchange.GetRecords()
    var ret = talib.ULTOSC(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.ULTOSC(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.ULTOSC(records);
    Log(ret);
}

The ULTOSC() function is described in the talib library documentation as: ULTOSC(Records[High,Low,Close],First Period = 7,Second Period = 14,Third Period = 28) = Array(outReal)

talib.WILLR

The talib.WILLR() function is used to calculate Williams’ %R.

The return value of the talib.WILLR() function is: a one-dimensional array. array

talib.WILLR(inPriceHLC) talib.WILLR(inPriceHLC, optInTimePeriod)

function main() {
    var records = exchange.GetRecords()
    var ret = talib.WILLR(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.WILLR(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.WILLR(records);
    Log(ret);
}```

The ```WILLR()``` function is described in the talib library documentation as: ```WILLR(Records[High,Low,Close],Time Period = 14) = Array(outReal)```

### talib.AVGPRICE

The ```talib.AVGPRICE()``` function is used to calculate **Average Price**.

The return value of the ```talib.AVGPRICE()``` function is a one-dimensional array.
array

talib.AVGPRICE(inPriceOHLC)

The ```inPriceOHLC``` parameter is used to specify the K-line data.
inPriceOHLC
true
{@struct/Record Record} structure array

```javascript
function main() {
    var records = exchange.GetRecords()
    var ret = talib.AVGPRICE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.AVGPRICE(records.Open, records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.AVGPRICE(records);
    Log(ret);
}

The AVGPRICE() function is described in the talib library documentation as: AVGPRICE(Records[Open,High,Low,Close]) = Array(outReal)

talib.MEDPRICE

The talib.MEDPRICE() function is used to calculate the Median Price.

The return value of the talib.MEDPRICE() function is a one-dimensional array. array

talib.MEDPRICE(inPriceHL)

The inPriceHL parameter is used to specify the K-line data. inPriceHL true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.MEDPRICE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.MEDPRICE(records.High, records.Low)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.MEDPRICE(records);
    Log(ret);
}

The MEDPRICE() function is described in the talib library documentation as: MEDPRICE(Records[High,Low]) = Array(outReal)

talib.TYPPRICE

The talib.TYPPRICE() function is used to calculate Typical Price.

The return value of the talib.TYPPRICE() function is a one-dimensional array. array

talib.TYPPRICE(inPriceHLC)

The inPriceHLC parameter is used to specify the K-line data. inPriceHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.TYPPRICE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.TYPPRICE(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.TYPPRICE(records);
    Log(ret);
}

The TYPPRICE() function is described in the talib library documentation as: TYPPRICE(Records[High,Low,Close]) = Array(outReal)

talib.WCLPRICE

The talib.WCLPRICE() function is used to calculate the Weighted Close Price.

The return value of the talib.WCLPRICE() function is a one-dimensional array. array

talib.WCLPRICE(inPriceHLC)

The inPriceHLC parameter is used to specify the K-line data. inPriceHLC true {@struct/Record Record} structure array

function main() {
    var records = exchange.GetRecords()
    var ret = talib.WCLPRICE(records)
    Log(ret)
}

import talib
def main():
    records = exchange.GetRecords()
    ret = talib.WCLPRICE(records.High, records.Low, records.Close)
    Log(ret)

void main() {
    auto records = exchange.GetRecords();
    auto ret = talib.WCLPRICE(records);
    Log(ret);
}

The WCLPRICE() function is described in the talib library documentation as: WCLPRICE(Records[High,Low,Close]) = Array(outReal)

TA Structures

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