IZAKI 0.618 TRADING ZONE
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Modjoy-Open Liquidity Heatmap [BigBeluga]

Modjoy-Open Liquidity Heatmap [BigBeluga]

Unlocking Trading Insights with Modjoy-Open Liquidity Heatmap: A Comprehensive Analysis of BigBeluga

As traders, we are constantly seeking innovative tools to gain a competitive edge in the markets. One such tool is the Modjoy-Open Liquidity Heatmap, powered by BigBeluga, which offers a unique perspective on market dynamics. In this article, we will delve into the core logic and trading strategy behind this cutting-edge technology, providing traders with a deeper understanding of its applications and potential benefits.

Introduction to Modjoy-Open Liquidity Heatmap

The Modjoy-Open Liquidity Heatmap is a visual representation of market liquidity, providing traders with a real-time snapshot of buy and sell orders across various price levels. This heatmap is powered by BigBeluga, a leading provider of liquidity data and analytics. By analyzing the heatmap, traders can identify areas of high liquidity, which can indicate strong market interest and potential trading opportunities.

Core Logic behind Modjoy-Open Liquidity Heatmap

The core logic behind the Modjoy-Open Liquidity Heatmap is based on the concept of order book dynamics. The order book is a list of all buy and sell orders for a particular asset, sorted by price level. The heatmap aggregates this data, creating a visual representation of the order book that allows traders to quickly identify patterns and trends. The heatmap is color-coded, with areas of high liquidity represented by warmer colors and areas of low liquidity represented by cooler colors.

Trading Strategy using Modjoy-Open Liquidity Heatmap

Traders can use the Modjoy-Open Liquidity Heatmap to inform their trading decisions in several ways:

  • Identifying Support and Resistance Levels: By analyzing the heatmap, traders can identify areas of high liquidity, which can indicate strong support and resistance levels. These levels can be used to set stop-loss orders, take-profit targets, and adjust trading strategies.
  • Detecting Order Flow Imbalances: The heatmap can also be used to detect order flow imbalances, which can indicate potential trading opportunities. For example, if there is a large concentration of buy orders at a particular price level, it may indicate a potential bullish trend.
  • Monitoring Market Sentiment: The heatmap can provide insights into market sentiment, allowing traders to gauge the overall mood of the market. This information can be used to adjust trading strategies and make more informed decisions.

Benefits of Using Modjoy-Open Liquidity Heatmap

The Modjoy-Open Liquidity Heatmap offers several benefits to traders, including:

  • Improved Market Insight: The heatmap provides a unique perspective on market dynamics, allowing traders to gain a deeper understanding of market mechanics.
  • Enhanced Trading Decisions: By analyzing the heatmap, traders can make more informed trading decisions, reducing the risk of costly mistakes.
  • Increased Efficiency: The heatmap can save traders time and effort by providing a quick and easy way to analyze market data.

Conclusion

In conclusion, the Modjoy-Open Liquidity Heatmap is a powerful tool for traders, offering a unique perspective on market dynamics. By understanding the core logic and trading strategy behind this technology, traders can unlock new insights and opportunities in the markets. Whether you are a seasoned trader or just starting out, the Modjoy-Open Liquidity Heatmap is definitely worth exploring. With its ability to provide improved market insight, enhance trading decisions, and increase efficiency, this tool has the potential to take your trading to the next level.

As the markets continue to evolve, it is essential for traders to stay ahead of the curve by embracing cutting-edge technologies like the Modjoy-Open Liquidity Heatmap. By leveraging the power of BigBeluga's liquidity data and analytics, traders can gain a competitive edge and achieve their trading goals.

Recommended Reading

For more information on the Modjoy-Open Liquidity Heatmap and its applications, we recommend the following resources:

Disclaimer

The information provided in this article is for educational purposes only and should not be considered as investment advice. Trading in financial markets involves risk, and it is essential to do your own research and consult with a financial advisor before making any investment decisions.


Modjoy Exclusive Source Code:

MODJOY-OPEN LIQUIDITY HEATMAP [BIGBELUGA] SOURCE CODE
//@version=5
indicator("Modjoy-Open Liquidity Heatmap [BigBeluga]", "Open Liquidity Heatmap [1.5]", overlay = true, max_bars_back = 5000, max_boxes_count = 500, max_labels_count = 500, max_lines_count = 500, max_polylines_count = 100)


const string gs  = "Settings"
const string gd  = "Display"
const string tlo = "Range period lookback for the liquidity calculation"
const string tle = "Leverage (counts as distance from price) for the liquidation"
const string ttl = "Amount of total levels"
const string tmo = "[MAX] Applay color gradient from the min to the max volume in the range\n[Fixed] Use the user input to determine the color gradient max value in the volume"
const string tof = "[Auto] Automatic Offset via lookback period\n[Manual] Offset by input"
const string tpo = "Display POC Liquidation\n[INPUT] Width of the POC line"
const string tvp = "Display Volume Profile"
const string tlv = "Display Liquidation Volume Profile"
const string trl = "Display Resting liquidity on the chart"
const string tmr = "Display Max range calculation"
const string dib = "Display VP Border"
const color cpoc = #13dffa
const color cvop = #434651
const color cvup = #006446
const color cvdn = #801922


back = input.int   (200       , "Lookback"                 ,  50,   500,     1      , tlo,          "1",    gs)
lvgr = input.float (4.5       , "Leverage"                 ,  0.1,   20,  0.01      , tle,          "2",    gs)
step = input.int   (250       , "Levels    "               ,  50,   250,     1      , ttl,          "3",    gs)
offs = input.string("Auto"    , "Offset    "               , ["Auto", "Manual"]     , tof,          "o",    gs)
ofle = input.int   (100       , ""                         ,  10,                     inline = "o", group = gs)
disP = input.bool  (true      , "POC                "      ,                     tpo,          "5",         gd)
pocC = input.color (cpoc      , ""                         ,                          inline = "5", group = gd)
pocW = input.int   (4         , ""                         ,                          inline = "5", group = gd)
disV = input.bool  (true      , "VP                 "      ,                     tvp,          "6",         gd)
vpC  = input.color (cvop      , ""                         ,                          inline = "6", group = gd)
VPL  = input.bool  (true      , "VP LIQ"                   ,                     tlv,          "7",         gd)
VPUP = input.color (cvup      , ""                         ,                          inline = "7", group = gd)
VPDN = input.color (cvdn      , ""                         ,                          inline = "7", group = gd)
disR = input.bool  (true      , "Display Resting Liquidity",                     trl,          "8",         gd)
disL = input.bool  (true      , "Display Vertical Line"    ,                     tmr,          "9",         gd)


type store
    array ln 
    array hm
    map vp
    float lH
    float lL
    float lvl


lvgr      /= 100
float hs   = ta.highest(back) * (1 + lvgr)
float ls   = ta.lowest (back) * (1 - lvgr)
float diff = (hs - ls) / step


if barstate.islast
    for obj in line.all
        obj.delete()
    for obj in polyline.all
        obj.delete()
    for obj in label.all
        obj.delete()
    for obj in box.all
        obj.delete()

    var store        cls = store.new(array.new(step, line(na)), array.new(step, 0.), map.new(), high, low, hs)
    chart.point[] cp =                      array.new()
    chart.point[] cp1 =                      array.new()


    if disL
        cp.unshift          (chart.point.from_time(time[back], hs+diff))
        cp.unshift          (chart.point.from_time(time[back], ls))
        cp1.unshift          (chart.point.from_time(time, hs+diff))
        cp1.unshift          (chart.point.from_time(time, ls))
                
        polyline.new(cp, line_color = color.white, xloc = xloc.bar_time, force_overlay = true)
        polyline.new(cp1, line_color = color.new(chart.fg_color, 50), xloc = xloc.bar_time, force_overlay = true, line_style = line.style_dotted)

    for i = 0 to step - 1
        float plotter = na
        switch i
            0 =>
                plotter := hs
            =>
                plotter := hs - diff * (  i  )

        cls.ln.set(i, line.new(x1 = time[back], x2 = time, y1 = plotter, y2 = plotter, color = na, xloc = xloc.bar_time, width = 4))
        cls.vp.put(plotter, 0)

    line [] grid = cls.ln
    for i        = 0 to back
        for x = 0 to grid.size() - 2
         
            line current = grid.get  (   x    )
            line   next  = grid.get  (x  +  1 )
            float lP     = low [i] * (1 - lvgr)
            float hP     = high[i] * (1 + lvgr)
            float cL     = current.get_y2()
            float nL     =   next .get_y2()

            if low[i] <= current.get_y2() and high[i] >= next.get_y2()
                cls.vp.put(current.get_y2(), cls.vp.get(current.get_y2()) + volume[i])

            if cL < cls.lL
                current.set_x1(time[i])
                if low[i] < cls.lL
                    current.set_x1(time[i])

            if cL > cls.lH
                current.set_x1(time[i])
                if high[i] > cls.lH
                    current.set_x1(time[i])

            if lP < cls.lL
                if low[i] < cls.lL
                    cls.lL := low[i]
                if lP >= nL and lP <= cL
                    cls.hm.set(x,cls.hm.get(x) + volume[i])

            if hP > cls.lH
                if high[i] > cls.lH
                    cls.lH := high[i]
                if hP >= nL and hP <= cL
                    cls.hm.set(x,cls.hm.get(x) + volume[i])

    float[] heat = cls.hm
    float[] volt = cls.vp.values()
    int     pocL = na

    for i = 0 to grid.size() - 2
    
        line     ln = grid.get(  i  )
        line     lx = grid.get(i + 1)

        int   ancor = math.round((offs == "Auto" ? (back / 2) : ofle) * heat.get(i) / heat.max())

        color    bC = color.from_gradient(heat.get(i), heat.min(), heat.max(), #ffffff00, close > ln.get_y2() ? VPUP : VPDN)
        color    gC = color.from_gradient(heat.get(i), heat.min(), heat.max(), #ffffff00, close < ln.get_y2() ? VPDN : VPUP)
        color    vC = color.from_gradient(volt.get(i), volt.min(), volt.max(), chart.bg_color, vpC)

        pocL := heat.get(i) == heat.max() ? ancor : pocL

        if disR
            ln.set_color(gC)

        if VPL 
            box.new(
                   top          = lx.get_y2() + diff + diff/2
                 , bottom       = lx.get_y2()+ diff/2
                 , left         = time
                 , right        = time + (time - time[1]) * ancor
                 , bgcolor      = bC
                 , border_color = bC
                 , xloc         = xloc.bar_time
                 )

        if disV
            int   vpcim = math.round((offs == "Auto" ? (back / 2) : ofle) * volt.get(i) / volt.max())
            box.new(
                   top          = ln.get_y2()
                 , bottom       = lx.get_y2()
                 , left         = time[back + vpcim]
                 , right        = time[back]
                 , bgcolor      = vC
                 , border_color = vC
                 , xloc         = xloc.bar_time
                 )

    if disP
        avg = math.avg(
               grid.get(heat.indexof(heat.max())    ).get_y2()
             , grid.get(heat.indexof(heat.max()) + 1).get_y2()
             )
        line.new(
               x1        = time[back]
             , x2        = time + (time - time[1]) * pocL
             , y1        = avg+ diff/2
             , y2        = avg+ diff/2
             , color     = pocC
             , xloc      = xloc.bar_time
             , width     = pocW
             , force_overlay = true
             )
        label.new(
               x         = time + (time - time[1]) * pocL
             , y         = avg+ diff/2
             , textcolor = pocC
             , color     = #ffffff00
             , style     = label.style_label_left
             , size      = size.normal
             , text      = "POC | " + str.tostring(math.round(avg, 2))
             , xloc      = xloc.bar_time
             )
        label.new(
               x         = time + (time - time[1]) * pocL
             , y         = avg+ diff/2
             , color     = pocC
             , style     = label.style_circle
             , size      = size.tiny
             , xloc      = xloc.bar_time
             , force_overlay = true
             )


⚠️ High Risk Warning

Trading Forex and Futures involves a very high degree of risk and may not be suitable for all investors. The high degree of leverage can result in the complete loss of your funds. These indicators are educational tools and do not guarantee profits. Please trade responsibly with capital you can afford to lose.