snowsilence

Substratum Module [snowsilence]

This module is meant to act as a framework and platform over which to develop other indicators. On its own it does essentially nothing, yet simplifies the work of adding basic customizations and flexibility to ideas immediately. The chart on this post is not a demo, so its better to just try adding the indicator to a test chart — you may find it more convenient to set "overlay=true" in the study header — and look into the settings for an intuitive sense of its purpose.

Please build off of this, let me know if you find it useful, and credit/reference me where it seems reasonable. Feedback is always appreciated!
نص برمجي مفتوح المصدر

قام مؤلف هذا النص البرمجي بنشره وجعله مفتوح المصدر، بحيث يمكن للمتداولين فهمه والتحقق منه، وهو الأمر الذي يدخل ضمن قيم TradingView. تحياتنا للمؤلف! يمكنك استخدامه مجانًا، ولكن إعادة استخدام هذا الكود في منشور تحكمه قواعد الموقع. يمكنك جعله مفضلاً لاستخدامه على الرسم البياني.

إخلاء المسؤولية

لا يُقصد بالمعلومات والمنشورات أن تكون، أو تشكل، أي نصيحة مالية أو استثمارية أو تجارية أو أنواع أخرى من النصائح أو التوصيات المقدمة أو المعتمدة من TradingView. اقرأ المزيد في شروط الاستخدام.

هل تريد استخدام هذا النص البرمجي على الرسم البياني؟
study("Substratum Module", "SUB_SS", overlay=false)

// This module/sub-indicator — "Substratum" [v0.1] (by snowsilence) — is meant to act
// as a framework and platform over which to develop other indicators.
// On its own it does essentially nothing but simplify the work of adding
// basic customizations and flexibility to ideas immediately. 
// Please build off of this, let me know if you find useful, 
// and credit/reference me where it seems reasonable.
// Feedback is always appreciated.

use_auto = input(true, title = "Auto-sense Security & Interval", type = bool, defval=true)
use_HA = input(true, title = "Use 'Heiken Ashi' Bar Values?", type = bool, defval = true)

length = input(title="Bin Size/Length",defval=21, minval = 1)
lb = input(0, "Series Look-back Depth (n-Bars)", type = integer, minval = 0)
off_set = input(0, "Plot Offset", defval = 0, type = integer)
off_mult = input(1, "Offset Multiplier",minval=1, type=integer)
offset = (off_mult)*(off_set)

use_cti = input(false, title = "Use Custom Parameters? (First Disable Auto-Sense)", type = bool)
SEC_0 = input("BITSTAMP:BTCUSD", "Security", type = symbol) //This is the default security used when 'custom' mode is enabled. It should have been possible to user the built-in variable "tickerid" in the input in place of the string, but there is a bug in the Pine script disallowing this.
TI = use_cti ? input("1W","Interval:", type=string) : input("D", "Default Interval (If None Specified) :", type = resolution)

logW(x,b)=>log(x)/log(b)
use_log=input(false,title="Output Signal Log Base-b",type=bool)
use_pow=input(false,title="XOR Output to bth Power",type=bool)
b=input(10,"b",minval=2,type=float)

SEC = use_HA ? heikenashi(SEC_0) : SEC_0

O = use_auto ? open[lb] : (use_log?(security(SEC, TI, logW(open[lb],b))):use_pow?(security(SEC, TI, pow(open[lb],b))):security(SEC, TI, open[lb]))
H = use_auto ? high[lb] : (use_log?(security(SEC, TI, logW(high[lb],b))):use_pow?(security(SEC, TI, pow(high[lb],b))):security(SEC, TI, high[lb]))
L = use_auto ? low[lb] : (use_log?(security(SEC, TI, logW(low[lb],b))):use_pow?(security(SEC, TI, pow(low[lb],b))):security(SEC, TI, low[lb]))
C = use_auto ? close[lb] : (use_log?(security(SEC, TI, logW(close[lb],b))):use_pow?(security(SEC, TI, pow(close[lb],b))):security(SEC, TI, close[lb]))
A3 = use_auto ? hlc3[lb] : (use_log?(security(SEC, TI, logW(hlc3[lb],b))):use_pow?(security(SEC, TI, pow(hlc3[lb],b))):security(SEC, TI, hlc3[lb]))
A4 = use_auto ? ohlc4[lb] : (use_log?(security(SEC, TI, logW(ohlc4[lb],b))):use_pow?(security(SEC, TI, pow(ohlc4[lb],b))):security(SEC, TI, ohlc4[lb]))

//Basic 'High|OHLC4|Low' Plot Example

plot(L, color = #990000, offset = offset)
plot(H, color = #2B5715, offset = offset)
plot(A4,color = #073763, offset = offset)

//Generalize Traditional Pivots Example (Uncomment below; re-comment above example)

// p = A3
// s_1 = (2*p) - H
// s_2 = p - (H - L)
// s_3 = L - (2 * (H - p))
// r_1= (2*p) - L
// r_2 = p + (H - L)
// r_3 = H + (2 * (p - L))

// plot(p, color=black,offset=offset)
// plot(s_1, color=lime,offset=offset)
// plot(s_2, color=green,offset=offset)
// plot(s_3, color=black,offset=offset)
// plot(r_1, color=red,offset=offset)
// plot(r_2, color=maroon,offset=offset)
// plot(r_3, color=black,offset=offset)