LazyBear

JMA RSX Clone [LazyBear]

RSX is a "noise free" version of RSI , with no added lag. This is a port of a clone to Pine.

Use this indicator just like RSI . I have set the default length to 14, feel free to experiment. You can reduce length with out worrying about jaggedness.

Options page has all the configurable parameters. You can use the plot names to setup alerts.

I have couple of more indicators built using this, will post them later. Let me know what you think about this indicator.

RSX Clone compared to normal RSI:

Smoothness helps a lot in identifying the divergences correctly:

More info:
http://www.jurikres.com/down__/product_g...

List of my public indicators: http://bit.ly/1LQaPK8
List of my app-store indicators: http://blog.tradingview.com/?p=970

List of my free indicators: http://bit.ly/1LQaPK8
List of my indicators at Appstore: http://blog.tradingview.com/?p=970
開源腳本

本著真正的TradingView精神,該腳本的作者將其開源發布,以便交易者可以理解和驗證它。為作者喝彩吧!您可以免費使用它,但在出版物中重複使用此代碼受網站規則的約束。 您可以收藏它以在圖表上使用。

免責聲明

這些資訊和出版物並不意味著也不構成TradingView提供或認可的金融、投資、交易或其他類型的意見或建議。請在使用條款閱讀更多資訊。

想在圖表上使用此腳本?
//
// @author LazyBear 
// 
// List of my public indicators: http://bit.ly/1LQaPK8 
// List of my app-store indicators: http://blog.tradingview.com/?p=970 
//
//
study(title="JMA RSX Clone [LazyBear]", shorttitle="RSXC_LB", overlay=false)
src=input(close)
length=input(14)
lvlob = input(70, title="OB Level")
lvlos = input(30, title="OS Level")
mid  = input(50, title="Mid Level")
clampmax = 100
clampmin = 0
f90_ = (nz(f90_[1]) == 0.0) ? 1.0 : (nz(f88[1]) <= nz(f90_[1])) ? nz(f88[1])+1 : nz(f90_[1])+1
f88 = (nz(f90_[1]) == 0.0) and (length-1 >= 5) ? length-1.0 : 5.0 
f8 =  100.0*(src) 
f18 = 3.0 / (length + 2.0) 
f20 = 1.0 - f18 
f10 = nz(f8[1])
v8 = f8 - f10 
f28 = f20 * nz(f28[1]) + f18 * v8 
f30 = f18 * f28 + f20 * nz(f30[1])
vC = f28 * 1.5 - f30 * 0.5 
f38 = f20 * nz(f38[1]) + f18 * vC 
f40 = f18 * f38 + f20 * nz(f40[1])
v10 = f38 * 1.5 - f40 * 0.5 
f48 = f20 * nz(f48[1]) + f18 * v10 
f50 = f18 * f48 + f20 * nz(f50[1])
v14 = f48 * 1.5 - f50 * 0.5 
f58 = f20 * nz(f58[1]) + f18 * abs(v8) 
f60 = f18 * f58 + f20 * nz(f60[1])
v18 = f58 * 1.5 - f60 * 0.5
f68 = f20 * nz(f68[1]) + f18 * v18 
f70 = f18 * f68 + f20 * nz(f70[1])
v1C = f68 * 1.5 - f70 * 0.5 
f78 = f20 * nz(f78[1]) + f18 * v1C 
f80 = f18 * f78 + f20 * nz(f80[1])
v20 = f78 * 1.5 - f80 * 0.5
f0 = ((f88 >= f90_) and (f8 != f10)) ? 1.0  : 0.0
f90 = ((f88 == f90_) and (f0 == 0.0))  ? 0.0  : f90_
v4_ = ((f88 < f90) and (v20 > 0.0000000001)) ? (v14 / v20 + 1.0) * 50.0 : 50.0
rsx = (v4_ > 100.0) ? 100.0 : (v4_ < 0.0) ? 0.0 : v4_
hline(lvlob, color=red, title="OB Level"), hline(mid,linewidth=2, title="Mid Level"), hline(lvlos, color=green, title="OS Level"), 
plot(rsx, color=red, linewidth=2, title="RSXC")