Please Convert Harmonic Pattern to Proealtime

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  • This topic has 4 replies, 2 voices, and was last updated 2 weeks ago by avataryas.
Viewing 5 posts - 1 through 5 (of 5 total)
  • #238811
    yas

    // This Pine Script™ code is subject to the terms of the Mozilla Public License 2.0 at https://mozilla.org/MPL/2.0/
    // © TFlab
    //@version=5

    indicator(“Shark Harmonic Pattern [TradingFinder] Shark Detector Indicator”, “Shark Pattern TFlab” ,overlay = true, max_bars_back = 5000, max_lines_count = 500, max_labels_count = 500)

    // Import Library
    import TFlab/Harmonic_Chart_Pattern_Library_TradingFinder/1 as HP
    import TFlab/AlertSenderLibrary_TradingFinder/1 as AlertSender
    import TFlab/Dark_Light_Theme_TradingFinder_Switching_Colors_Library/1 as Color

    // Logical Input
    PP = input.int(3, ‘ZigZag Pivot Period’, group = ‘Logical Setting’)
    ShVF = input.bool(false , ‘Show Valid Format’, group = ‘Logical Setting’)
    FLPC = input.bool(false , ‘Show Formation Last Pivot Confirm’, group = ‘Logical Setting’)
    FLPCPeriod =input.int(2, ‘Period of Formation Last Pivot’, group = ‘Logical Setting’)

    // Display Input
    ShowBull = input.bool(true, ‘Show Bullish Pattern’, group = ‘Display Setting’)
    ShowBear = input.bool(true, ‘Show Bearish Pattern’, group = ‘Display Setting’)
    ColorBull = input.color(#0609bb, ‘Color Bullish Pattern’, group = ‘Display Setting’)
    ColorBear = input.color(#0609bb, ‘Color Bearish Pattern’, group = ‘Display Setting’)
    LineWidth = input.int(1 , ‘Width Line’, group = ‘Display Setting’)
    LabelSize = input.string(size.small , ‘Label size’ , options = [size.auto, size.tiny, size.small, size.normal, size.large, size.huge], group = ‘Display Setting’)
    Mode =input.string(‘Light’, ‘Switching Colors Theme Mode’, options = [‘Off’, ‘Light’, ‘Dark’], group = ‘Display Setting’)
    [ColorBullish] = Color.SwitchingColorMode(ColorBull, Mode )
    [ColorBearish] = Color.SwitchingColorMode(ColorBear, Mode )

    // Alert Input
    Alert = input.string(‘On’, ‘Alert’, [‘On’, ‘Off’], ‘If you turn on the Alert, you can receive alerts and notifications after setting the “Alert”.’, group = ‘Alert’)
    AlertName = input.string(‘Shark Harmonic Pattern [TradingFinder]’, ‘Alert Name’, group = ‘Alert’)
    Frequncy = input.string(‘Once Per Bar’ , ‘Message Frequency’ , [‘All’, ‘Once Per Bar’ , ‘Per Bar Close’], ‘The triggering frequency. Possible values are: All’+
    ‘ (all function calls trigger the alert), Once Per Bar (the first function call during the bar triggers the alert), ‘ +
    ‘ Per Bar Close (the function call triggers the alert only when it occurs during the last script iteration of the real-time bar,’ +
    ‘ when it closes). The default is alert.freq_once_per_bar.)’, group = ‘Alert’)
    UTC = input.string(‘UTC’ , ‘Show Alert time by Time Zone’, group = ‘Alert’)
    MessageBull = input.text_area(‘Long Signal Position Based on Shark Harmonic Pattern’ , ‘Long Position Message’ , group = ‘Alert’)
    MessageBear = input.text_area(‘Short Signal Position Based on Shark Harmonic Pattern’, ‘Short Position Message’,group = ‘Alert’)

    // Call Harmonic Pattern Function
    [BullAlert, BullCandleConfirm] = HP.XABCD(‘Bullish Shark’, ‘Bullish’, ShowBull, ColorBullish , LineWidth, LabelSize ,ShVF, FLPC, FLPCPeriod, PP, 0.10, 0.90, 1.13, 1.618, 1.618, 2.24,0.886, 1.13 )
    [BearAlert, BearCandleConfirm] = HP.XABCD(‘Bearish Shark’, ‘Bearish’, ShowBear, ColorBearish , LineWidth, LabelSize ,ShVF, FLPC, FLPCPeriod, PP, 0.10, 0.90, 1.13, 1.618, 1.618, 2.24,0.886, 1.13 )

    // Call Alert Sender Function
    AlertSender.AlertSender(BullAlert , Alert, AlertName , ‘Analysis’, ”, ‘Basic’ ,’Once Per Bar’, ‘UTC’, ‘Off’, MessageBull, open, high, low, close,0,0,0,0,0)
    AlertSender.AlertSender(BearAlert , Alert, AlertName , ‘Analysis’, ”, ‘Basic’ ,’Once Per Bar’, ‘UTC’, ‘Off’, MessageBear, open, high, low, close,0,0,0,0,0)

    // Candle Confirmation
    plotshape(BearCandleConfirm, style = shape.arrowdown, color = color.red)
    plotshape(BullCandleConfirm, style = shape.arrowup, color = color.green, location = location.belowbar )

     

    #238820

    Sorry, but this code cannot be translated because it is not complete. The libraries it mentions are missing.

    // Import Library

    import TFlab/Harmonic_Chart_Pattern_Library_TradingFinder/1 as HP
    import TFlab/AlertSenderLibrary_TradingFinder/1 as AlertSender
    import TFlab/Dark_Light_Theme_TradingFinder_Switching_Colors_Library/1 as Color

    #238828
    yas

    hi ivan

    Please try the below if that can be converted many thanks

     

    // This work is licensed under a Attribution-NonCommercial-ShareAlike 4.0 International (CC BY-NC-SA 4.0) https://creativecommons.org/licenses/by-nc-sa/4.0/
    // © LuxAlgo

    //@version=5
    indicator(“Harmonic Pattern Detection [LuxAlgo]”,overlay=true)
    precision = input.float(.01,’XA Precision’,step=0.01,group=’Precision’)
    bullish = input(#0cb51a,’Bullish’,group=’style’)
    bearish = input(#ff1100,’Bullish’,group=’style’)

    x = input.time(0,’X’,confirm=true,group=’Anchor Points’)
    a = input.time(0,’A’,confirm=true,group=’Anchor Points’)
    b = input.time(0,’B’,confirm=true,group=’Anchor Points’)
    c = input.time(0,’C’,confirm=true,group=’Anchor Points’)
    d = input.time(0,’D’,confirm=true,group=’Anchor Points’)
    //—-
    x_y = ta.valuewhen(time==x,close,0)
    a_y = ta.valuewhen(time==a,close,0)
    b_y = ta.valuewhen(time==b,close,0)
    c_y = ta.valuewhen(time==c,close,0)
    //—-
    dist(fib)=>
    d_y = a_y + fib*(x_y – a_y)
    cd = math.abs(d_y-c_y)/math.abs(c_y-b_y)

    ab = math.abs(a_y-b_y)/math.abs(a_y-x_y)
    bc = math.abs(c_y-b_y)/math.abs(a_y-b_y)
    //—-
    var tb = table.new(position.top_right,2,4,bgcolor=color.gray)

    var float upper_prz = na
    var float lower_prz = na
    var float d_y = na

    if time == math.max(x,a,b,c)
    css = x_y > a_y ? bearish : bullish

    line.new(x,x_y,a,a_y,xloc=xloc.bar_time,color=css,width=2)
    line.new(a,a_y,b,b_y,xloc=xloc.bar_time,color=css,width=2)
    line.new(b,b_y,c,c_y,xloc=xloc.bar_time,color=css,width=2)

    line.new(x,x_y,b,b_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)
    line.new(x,x_y,b,b_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)
    line.new(a,a_y,c,c_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)

    //—-

    label.new(x,x_y,’X’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_down : label.style_label_up
    ,textcolor=color.white,size=size.small)
    label.new(a,a_y,’A’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_up : label.style_label_down
    ,textcolor=color.white,size=size.small)
    label.new(b,b_y,’B’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_down : label.style_label_up
    ,textcolor=color.white,size=size.small)
    label.new(c,c_y,’C’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_up : label.style_label_down
    ,textcolor=color.white,size=size.small)

    AB_tooltip = ‘🦇 0.382-0.5 \n📏 ≈ 0.618 \n🦋 ≈ 0.786 \n🦀 0.382-0.618’
    BC_tooltip = ‘🦇 0.382-0.886 \n📏 0.382-0.886 \n🦋 0.382-0.886 \n🦀 0.382-0.886’
    CD_tooltip = ‘🦇 1.618-2.618 \n📏 1.130-1.618 \n🦋 1.618-2.240 \n🦀 2.618-3.618′

    label.new(int(math.avg(x,b)),math.avg(x_y,b_y),str.tostring(ab,’#.###’),xloc=xloc.bar_time,color=css,style=label.style_label_center
    ,textcolor=color.white,size=size.small,tooltip=AB_tooltip)
    label.new(int(math.avg(a,c)),math.avg(a_y,c_y),str.tostring(bc,’#.###’),xloc=xloc.bar_time,color=css,style=label.style_label_center
    ,textcolor=color.white,size=size.small,tooltip=BC_tooltip)

    //—-

    table.cell(tb,0,0,’🦇 Bat’,text_color=color.white,text_halign=text.align_left)
    table.cell(tb,0,1,’📏 Gartley’,text_color=color.white,text_halign=text.align_left)
    table.cell(tb,0,2,’🦋 Butterfly’,text_color=color.white,text_halign=text.align_left)
    table.cell(tb,0,3,’🦀 Crab’,text_color=color.white,text_halign=text.align_left)

    //Bat
    if ab > 0.382 and ab < .5 and bc > 0.382 and bc < 0.886 and dist(0.886) > 1.618 and dist(0.886) < 2.618
    table.cell(tb,1,0,’✔️’)
    table.cell(tb,1,1,’❌’)
    table.cell(tb,1,2,’❌’)
    table.cell(tb,1,3,’❌’)

    d_y := a_y + 0.886*(x_y – a_y)
    cd = math.abs(d_y-c_y)/math.abs(c_y-b_y)

    line.new(c,c_y,d,d_y,xloc=xloc.bar_time,color=css,width=2)
    line.new(b,b_y,d,d_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)

    label.new(d,d_y,’D’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_down : label.style_label_up
    ,textcolor=color.white,size=size.small)
    label.new(int(math.avg(d,b)),math.avg(d_y,b_y),str.tostring(cd,’#.###’),xloc=xloc.bar_time,color=css,style=label.style_label_center
    ,textcolor=color.white,size=size.small,tooltip=CD_tooltip)

    //Gartley
    else if ab > 0.618-precision and ab < 0.618+precision and bc > 0.382 and bc < 0.886 and dist(0.786) > 1.13 and dist(0.786) < 1.618
    table.cell(tb,1,0,’❌’)
    table.cell(tb,1,1,’✔️’)
    table.cell(tb,1,2,’❌’)
    table.cell(tb,1,3,’❌’)

    d_y := a_y + 0.786*(x_y – a_y)
    cd = math.abs(d_y-c_y)/math.abs(c_y-b_y)

    line.new(c,c_y,d,d_y,xloc=xloc.bar_time,color=css,width=2)
    line.new(b,b_y,d,d_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)

    label.new(d,d_y,’D’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_down : label.style_label_up
    ,textcolor=color.white,size=size.small)
    label.new(int(math.avg(d,b)),math.avg(d_y,b_y),str.tostring(cd,’#.###’),xloc=xloc.bar_time,color=css,style=label.style_label_center
    ,textcolor=color.white,size=size.small,tooltip=CD_tooltip)

    //Butterfly
    else if ab > 0.786-precision and ab < 0.786+precision and bc > 0.382 and bc < 0.886 and dist(1.27) > 1.618 and dist(1.27) < 2.24
    table.cell(tb,1,0,’❌’)
    table.cell(tb,1,1,’❌’)
    table.cell(tb,1,2,’✔️’)
    table.cell(tb,1,3,’❌’)

    d_y := a_y + 1.27*(x_y – a_y)
    cd = math.abs(d_y-c_y)/math.abs(c_y-b_y)

    line.new(c,c_y,d,d_y,xloc=xloc.bar_time,color=css,width=2)
    line.new(b,b_y,d,d_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)

    label.new(d,d_y,’D’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_down : label.style_label_up
    ,textcolor=color.white,size=size.small)
    label.new(int(math.avg(d,b)),math.avg(d_y,b_y),str.tostring(cd,’#.###’),xloc=xloc.bar_time,color=css,style=label.style_label_center
    ,textcolor=color.white,size=size.small,tooltip=CD_tooltip)

    //Crab
    else if ab > 0.382 and ab < .618 and bc > 0.382 and bc < 0.886 and dist(1.618) > 2.224 and dist(1.618) < 3.618
    table.cell(tb,1,0,’❌’)
    table.cell(tb,1,1,’❌’)
    table.cell(tb,1,2,’❌’)
    table.cell(tb,1,3,’✔️’)

    d_y := a_y + 1.618*(x_y – a_y)
    cd = math.abs(d_y-c_y)/math.abs(c_y-b_y)

    line.new(c,c_y,d,d_y,xloc=xloc.bar_time,color=css,width=2)
    line.new(b,b_y,d,d_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)

    label.new(d,d_y,’D’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_down : label.style_label_up
    ,textcolor=color.white,size=size.small)
    label.new(int(math.avg(d,b)),math.avg(d_y,b_y),str.tostring(cd,’#.###’),xloc=xloc.bar_time,color=css,style=label.style_label_center
    ,textcolor=color.white,size=size.small,tooltip=CD_tooltip)
    else
    table.cell(tb,1,0,’❌’)
    table.cell(tb,1,1,’❌’)
    table.cell(tb,1,2,’❌’)
    table.cell(tb,1,3,’❌’)

    d_y := a_y + 0.886*(x_y – a_y)
    cd = math.abs(d_y-c_y)/math.abs(c_y-b_y)

    line.new(c,c_y,d,d_y,xloc=xloc.bar_time,color=css,width=2)
    line.new(b,b_y,d,d_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)

    label.new(d,d_y,’D’,xloc=xloc.bar_time,color=css,style=x_y > a_y ? label.style_label_down : label.style_label_up
    ,textcolor=color.white,size=size.small)
    label.new(int(math.avg(d,b)),math.avg(d_y,b_y),str.tostring(cd,’#.###’),xloc=xloc.bar_time,color=css,style=label.style_label_center
    ,textcolor=color.white,size=size.small,tooltip=CD_tooltip)

    upper_prz := d_y + 0.382*math.abs(d_y – x_y)
    lower_prz := d_y – 0.382*math.abs(d_y – x_y)
    box.new(x,upper_prz,d,lower_prz,border_color=na,xloc=xloc.bar_time,bgcolor=color.new(css,80),extend=extend.both)

    line.new(x,x_y,d,d_y,xloc=xloc.bar_time,color=css,style=line.style_dotted)

    //Alerts
    alertcondition(ta.crossover(close,lower_prz) or ta.crossunder(close,upper_prz),’Price Enter PRZ’,’Price entered the PRZ’)
    alertcondition(ta.cross(close,d_y),’Price Cross D’,’Price crossed point D’)

    //PRZ Plots
    plot(upper_prz,’Upper PRZ’,na)
    plot(lower_prz,’Lower PRZ’,na)

    #239061

    Hello. This is what I can offer you… in PRT we cannot select points x,a,b,c,d so we have to do it through configuration.

    #239066
    yas

    Thanks mate much appreciated

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