Moon VWAPMoon VWAP (MAVWAP) overlays anchored VWAP (AVWAP) segments that reset on calendar-based anchors you choose—primarily every New Moon (and optionally Full Moon), plus optional anchors for Mercury retrograde start, Venus retrograde start, Total Lunar Eclipse (TLE), Total Solar Eclipse (TSE), and a regime-flip anchor derived from your scripted eclipse rules.
What you get
Lunar markers: New Moon and Full Moon events (UTC), with styling options including August New Moon emphasis and optional ±day background tint around New Moons.
Retrograde context: Mercury (and optional Venus) retrograde start/end markers, optional in-span shading, optional shadow shading, and optional “open at Rx start” reference.
Eclipse markers: Total (and optional partial) lunar/solar eclipse marks.
Optional regime backdrop: Background tinting for a lunar-cycle vs solar-cycle interpretation (user-configurable rules in the inputs).
AVWAP suite: Separate toggles/colors for VWAP segments anchored to the events above—useful for tracking how price behaves from each anchor forward.
How to use
Pick which anchors matter for your process (most users start with New Moon AVWAP).
Choose marker style (emoji-only vs vertical lines) for a cleaner chart.
If something looks off vs your reference almanac, confirm the underlying UTC tables against your preferred astronomical source—this tool is for visual context, not a guarantee of timing precision on every feed.
Disclaimer: For education and research only. Not financial advice. Past performance does not guarantee future results. Astronomical/astrological cycle overlays are discretionary; verify critical dates independently. Indicator
Lunar Cycle Oscillator [PyraTime]The Lunar Cycle Oscillator V1 is a predictive, timeframe-agnostic visualizer designed for traders who utilize Gann theory and astronomical cycles. It plots the Moon’s exact ~29.53-day synodic phase as a fluid, oscillating wave. Designed with a premium dark-mode aesthetic (Navy, Grey, Cyan, and Gold), it provides immediate visual context for market turning points aligned with lunar events.
Core Features
Neon Glow Wave: A multi-layered, silver-core sine wave that oscillates between -1.0 (New Moon) and 1.0 (Full Moon).
Precision Pulse Markers: Vertical event lines for Full Moons (Gold), New Moons (Cyan), and Quarter Moons (Dashed Grey).
Future Projections: Automatically forecasts the exact timing of the next three lunar phases into the future chart space at 70% transparency.
Dynamic Background Shading: Subtle pane shading that transitions between deep navy (Waning) and faint cyan (Waxing) to frame the oscillator.
Live Data Table: A real-time HUD displaying the current lunar illumination percentage and a day-countdown to the next major phase.
Integrated Alerts: Ready-to-use alert conditions for all four major lunar phase transitions.
Mathematical Methodology & Engineering
This indicator bypasses standard bar-counting limits. Instead of relying on relative bar references (which break on different timeframes), it calculates the exact astronomical phase using a known historical New Moon UNIX timestamp combined with the length of a synodic month in milliseconds.
Crucially, this script completely eliminates the Floating Indicator Issue. By anchoring every single line, label, and future projection strictly to xloc=xloc.bar_time, graphical objects will never detach, drift, or freeze in mid-air when panning or zooming. They are permanently locked to their exact moment in historical or future time.
Understanding "Jagged" Waves on Certain Assets
If you apply this indicator to a 5-day-a-week asset (like Gold, Forex, or traditional equities), the sine wave may occasionally look "chopped" or jagged at the peaks and troughs.
The Cause: The lunar cycle continues over the weekend, but the market does not. If a Full Moon peaks on a Saturday, the chart draws a rigid, straight line from Friday's close directly to Monday's open, cutting off the smooth weekend curve.
The Verification: To see the pure, mathematically perfect sine wave, apply the indicator to a 24/7 asset like Bitcoin (BTCUSD), where no weekend X-axis gaps exist.
Recommended Chart Setup (PulseWire)
To achieve the optimal visual aesthetic and minimize chart gaps, apply the following settings to your PulseWire chart:
Hide Background Grid Lines: The neon glow effect looks best on a clean, dark canvas. Right-click your chart background, select Settings, navigate to the Canvas tab, locate Grid lines, and drop the opacity slider down to 0% (or set them to match your exact background color).
Enable Extended Trading Hours (ETH): To smooth out the wave on traditional markets by filling in missing data gaps, turn on Extended Hours. Click the RTH / ETH button in the bottom right corner of your chart (next to the time zone) and select Extended Trading Hours, or go to Settings > Symbol and change the Session to Extended. Note: Pure weekend data availability depends entirely on your specific broker's feed. Indicator
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Astro: Moon SizeThe Astro: Moon Size indicator, built using AstroLib , calculates the distance and visualizes the apparent size of the Moon based on astronomical positioning. This script is tailored for the 1D timeframe and provides insights into lunar perigees (closest approach) and apogees (farthest distance), making it useful for astrologically-informed trading strategies.
New Astro Indicators Feature:
By setting the Julian Date to X number of days in the future, and offsetting the plot by X number of bars accordingly, it is now possible to visualize future projections of PulseWire indicators that reference the AstroLib . This feature has been long requested and is far overdue, so thank you to everyone who pushed for this feature release. Enjoy, time travelers from the future!!
Key Features:
Moon Size Calculation: Uses Julian Date (J2000) conversion and AstroLib functions to determine the Moon's apparent distance.
Future Projection: Displays the Moon's distance from 28 up to 500 days ahead, with color gradients indicating proximity/size.
Pivot Identification: Marks local maxima (apogees) and minima (perigees) with labeled date stamps for easy reference.
Dynamic Labeling: Adapts label positioning and size based on the Moon's current trend and relative size.
Usage Notes:
⚠️ Timeframe Restriction: For now, the script only functions on the 1D timeframe and will prompt an error otherwise.
⚠️ Asset Restriction: This script is meant to be loaded on charts for assets that trade 24/7, like BTCUSD historical index. Indicator
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Astro: Celestial CoordinatesCelestial coordinates are a system of measurements used in astronomy and astrology to describe the positions of celestial objects such as stars, planets, and constellations. There are several different celestial coordinates, including right ascension (RA), longitude, latitude, declination, and altitude. Each coordinate has its own astronomical or astrological significance, as outlined below:
Right ascension (RA) is a coordinate used to describe the position of an object in the sky along the celestial equator. It is measured in hours, minutes, and seconds and is analogous to longitude on Earth. RA is significant in both astronomy and astrology because it allows astronomers and astrologers to accurately locate celestial objects in the sky.
Longitude is a coordinate used to describe the position of a planet or other object in its orbit around the Sun. It is measured in degrees and is significant in astronomy because it allows astronomers to accurately predict the positions of planets and other objects in the solar system.
Latitude is a coordinate used to describe the position of an object in the sky relative to the celestial equator. It is measured in degrees and is significant in both astronomy and astrology because it helps astronomers and astrologers to determine the positions of celestial objects in the sky.
Declination is a coordinate used to describe the position of an object in the sky relative to the celestial equator, similar to latitude but measured in degrees north or south of the celestial equator. It is significant in astronomy because it allows astronomers to accurately locate objects in the sky.
Altitude is a coordinate used to describe the height of an object above the horizon. It is measured in degrees and is significant in both astronomy and astrology because it allows astronomers and astrologers to determine when objects will be visible in the sky and at what angle.
In astrology, celestial coordinates are used to create maps of the positions of celestial objects. This indicator plots the corresponding celestial coordinate
values for each planet, moon, or sun and labels key turning (pivot) points with a date (& optional time). Hover over labels for additional information. Indicator
Astro: Planetary SpeedPlanetary speed refers to the rate at which a planet moves along its orbit around the Sun. The speed of a planet can vary depending on its distance from the Sun, and is generally fastest at the point in its orbit where it is closest to the Sun (perihelion) and slowest at the point where it is farthest from the Sun (aphelion).
The significance of planetary speeds lies in their astrological interpretation. In astrology, the speed of a planet is thought to influence its energy and influence earthly affairs. Fast-moving planets, such as Mercury and Venus, are believed to have a more immediate and fleeting influence, while slower-moving planets, such as Jupiter and Saturn, are thought to have a more long-lasting and significant impact.
Astrologers use the speed of the planets, along with their positions, aspects, and other factors, to interpret their influence. By understanding the energy and symbolism associated with each planet, astrologers can provide insight and guidance to individuals seeking a greater understanding. Indicator
Astro: Solar SystemA bird's eye view model of the solar system is a simplified representation of our planetary system as seen from above. It can be thought of as a two-dimensional map of the solar system, in which the planets are shown in their approximate heliocentric longitudinal positions relative to the Sun and each other.
In this model, the Sun is shown as a large, central emoji, with the planets arranged in orbits around it. The inner planets - Mercury, Venus, Earth, and Mars - are located close to the Sun and inside the asteroid belt, while the outer planets - Jupiter, Saturn, Uranus, Neptune, and Pluto- are located farther out.
In a bird's eye view model, some of the details of the solar system are necessarily left out or simplified. For example, the distances between the planets are not to scale, and the orbits are shown as perfect circles rather than the elliptical shapes they actually are. Nonetheless, this model can provide a useful visual real-time representation of the relative heliocentric longitudinal positions (aspects) of the planets in our solar system.
🏅 Shoutout to @LuxAlgo for the circle code! Indicator
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AstroLibLibrary "AstroLib", or Astro Library, is a collection of public Pinescript functions & calculations for use in astrology & astronomy indicators. Unless noted otherwise, this library was written jointly by @badsector666 and @BarefootJoey.
Library "AstroLib"
t_(txt)
Parameters:
txt (string)
JDNv2(t, withFraction)
Parameters:
t (float)
withFraction (bool)
J2K(t)
Parameters:
t (float)
J2KtoUnix(TimeInJDN)
Parameters:
TimeInJDN (float)
atan2(y, x)
Parameters:
y (float)
x (float)
DegSin(x)
Parameters:
x (float)
DegCos(x)
Parameters:
x (float)
DegTan(x)
Parameters:
x (float)
DegArcsin(x)
Parameters:
x (float)
DegArccos(x)
Parameters:
x (float)
DegArctan(x)
Parameters:
x (float)
DegAtan2(y, x)
Parameters:
y (float)
x (float)
range2pi(x)
Parameters:
x (float)
range360(x)
Parameters:
x (float)
gst(days)
Parameters:
days (float)
DegDecimal(Degrees, Minutes, Seconds)
Parameters:
Degrees (float)
Minutes (float)
Seconds (float)
Rectangular(R, theta, phi, Index)
Parameters:
R (float)
theta (float)
phi (float)
Index (float)
rLength(x, y, z)
Parameters:
x (float)
y (float)
z (float)
spherical(x, y, z, Index)
Parameters:
x (float)
y (float)
z (float)
Index (float)
obliquity(d)
Parameters:
d (float)
requatorial(x, y, z, d, Index)
Parameters:
x (float)
y (float)
z (float)
d (float)
Index (float)
recliptic(x, y, z, d, Index)
Parameters:
x (float)
y (float)
z (float)
d (float)
Index (float)
sequatorial(R, theta, phi, d, Index)
Parameters:
R (float)
theta (float)
phi (float)
d (float)
Index (float)
secliptic(R, theta, phi, d, Index)
Parameters:
R (float)
theta (float)
phi (float)
d (float)
Index (float)
precess(d1, d2, DEC, RA, Index, ddec, dra)
Parameters:
d1 (float)
d2 (float)
DEC (float)
RA (float)
Index (float)
ddec (float)
dra (float)
riset(J2000, DEC, RA, GLat, GLong, Index)
Parameters:
J2000 (float)
DEC (float)
RA (float)
GLat (float)
GLong (float)
Index (float)
ssun(d, Index)
Parameters:
d (float)
Index (float)
rsun(d, Index)
Parameters:
d (float)
Index (float)
sun(d, Index)
Parameters:
d (float)
Index (float)
SunLongitude(d, Index)
Parameters:
d (float)
Index (float)
Sunrise(J2000, GLat, GLong, Index, altitudex)
Parameters:
J2000 (float)
GLat (float)
GLong (float)
Index (float)
altitudex (float)
smoon(dx, Index)
Parameters:
dx (float)
Index (float)
rmoon(d, Index)
Parameters:
d (float)
Index (float)
tmoon(d, GLat, GLong, Index)
Parameters:
d (float)
GLat (float)
GLong (float)
Index (float)
moon(d, Index)
Parameters:
d (float)
Index (float)
Element(d, pnum)
Parameters:
d (float)
pnum (int)
kepler(m, ecc, eps)
Parameters:
m (float)
ecc (float)
eps (float)
rplanet(d, pnumber, Index)
Parameters:
d (float)
pnumber (int)
Index (float)
planet(d, pnumber, Index)
Parameters:
d (float)
pnumber (int)
Index (float)
altaz(d, DEC, RA, GLat, GLong, Index)
Parameters:
d (float)
DEC (float)
RA (float)
GLat (float)
GLong (float)
Index (float)
prise(d, P, GLat, GLong, Index)
Parameters:
d (float)
P (int)
GLat (float)
GLong (float)
Index (float)
MoonSize(d)
Parameters:
d (float)
Refraction(Temperature_C, Atmospheric_Pressure_mBar, Altitude_Deg)
Parameters:
Temperature_C (float)
Atmospheric_Pressure_mBar (float)
Altitude_Deg (float)
MoonRise(d, Longitude, Latitude, Index)
Parameters:
d (float)
Longitude (float)
Latitude (float)
Index (float)
f_to_sec(dec)
Parameters:
dec (float)
f_to_time(sec)
Parameters:
sec (float)
deg_to_time(deg)
Parameters:
deg (float)
toDMS(coordinate)
Parameters:
coordinate (float)
convertDMS(lat, lng)
Parameters:
lat (float)
lng (float)
convlatdec(deg)
Parameters:
deg (float)
PlanetName(pnum)
Parameters:
pnum (int)
PlanetNameV(pnum)
Parameters:
pnum (int)
PlanetSign(pnum)
Parameters:
pnum (int)
PlanetColor(pnum)
Parameters:
pnum (int)
zodiaccolor(deg)
Parameters:
deg (float)
degsign(deg)
Parameters:
deg (float)
degsignf(deg)
Parameters:
deg (float)
degnash(deg)
Parameters:
deg (float)
degname(deg)
Parameters:
deg (float)
retrogradesym(deg)
Parameters:
deg (float)
degaspsign(deg)
Parameters:
deg (float)
degaspname(deg)
Parameters:
deg (float)
degaspfull(deg)
Parameters:
deg (float)
degaspfullV2(deg)
Parameters:
deg (float)
degaspnameV2(deg)
Parameters:
deg (float)
degtolowest180(deg)
Parameters:
deg (float)
degaspfullapproach(deg)
Parameters:
deg (float)
virinchiaspectcol(deg, bull_col, bear_col)
Parameters:
deg (float)
bull_col (color)
bear_col (color)
virinchiaspectemo(deg, bull_emo, bear_emo)
Parameters:
deg (float)
bull_emo (string)
bear_emo (string)
aspectfastsigndeg(deg)
Parameters:
deg (float)
aspectfastfull(deg)
Parameters:
deg (float)
aspectslowfull(deg)
Parameters:
deg (float)
aspectslowsigndeg(deg)
Parameters:
deg (float)
aspectslowsign(deg)
Parameters:
deg (float)
aspectsignprecision(deg, precision)
Parameters:
deg (float)
precision (int)
aspectsignprecisionV2(deg, precision)
Parameters:
deg (float)
precision (float)
aspectsignprecisionV2ext(deg, precision)
Parameters:
deg (float)
precision (float)
IPaspectsignprecision(planet1, planet2, precision)
Parameters:
planet1 (float)
planet2 (float)
precision (float)
IPaspectsignprecisionFull(planet1, planet2, precision)
Parameters:
planet1 (float)
planet2 (float)
precision (float)
IPaspectlineprecision(planet1, planet2, precision, style, width)
Parameters:
planet1 (float)
planet2 (float)
precision (float)
style (string)
width (int)
rDeg(deg)
Parameters:
deg (float)
AngToCirc(angle)
Parameters:
angle (float)
AngToCirc180(angle)
Parameters:
angle (float)
sidereal(deg, sidereal)
Parameters:
deg (float)
sidereal (bool)
J2000(JDN)
Parameters:
JDN (float)
JDN(t, d, tz)
Parameters:
t (float)
d (float)
tz (float)
getsun(index, day, dayr, latitude, longitude, tz)
Parameters:
index (int)
day (float)
dayr (float)
latitude (float)
longitude (float)
tz (float)
getmoon(index, day, dayr, latitude, longitude)
Parameters:
index (int)
day (float)
dayr (float)
latitude (float)
longitude (float)
getplanet(planet, index, day, dayr, latitude, longitude, tz)
Parameters:
planet (int)
index (int)
day (float)
dayr (float)
latitude (float)
longitude (float)
tz (float) Library
Moon Phases + Daily, Weekly, Monthly, Quarterly & Yearly Breaks█ Moon Phases
From LuxAlgo description.
Trading moon phases has become quite popular among traders, believing that there exists a relationship between moon phases and market movements.
This strategy is based on an estimate of moon phases with the possibility to use different methods to determine long/short positions based on moon phases.
Note that we assume moon phases are perfectly periodic with a cycle of 29.530588853 days (which is not realistically the case), as such there exists a difference between the detected moon phases by the strategy and the ones you would see. This difference becomes less important when using higher timeframes.
█ Daily, Weekly, Monthly, Quarterly & Yearly Breaks
This indicator marks the start of the selected periods with a vertical line that help with identifying cycles.
It allows to enable or disable independently the daily, weekly, monthly, quarterly and yearly session breaks.
This script is based on LuxAlgo and kaushi / icostan scripts.
Moon Phases Strategy
Year/Quarter/Month/Week/Day breaks
Month/week breaks
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