Physics of The Imploder Calculating the Approximate flow through the orifice of THE IMPLODER Nozzle

Physics of the Imploder

This page explains the fluid dynamics behind Fractal Water vortex nozzles and provides flow rate calculations for all available sizes. Use the reference tables below to determine flow rates for your specific application and water pressure.


Available Vortex Nozzle Sizes

Fractal Water vortex nozzles are available in the following sizes to match any pipe diameter and flow requirement. Each nozzle features a true bore diameter matching its connection size — no flow restriction from undersized passages.

Nozzle Size Bore Diameter Connection Typical Application
1/2″ 0.500″ 1/2″ NPT Small appliance, point-of-use
3/4″ 0.750″ 3/4″ NPT Residential, garden, greenhouse
1″ 1.000″ 1″ NPT Whole-home, commercial
1-1/4″ 1.250″ 1-1/4″ NPT Commercial, light industrial
1-1/2″ 1.500″ 1-1/2″ NPT Commercial, irrigation main
2″ 2.000″ 2″ NPT Industrial, large irrigation
3″ 3.000″ 3″ NPT Industrial, municipal
4″ 4.000″ 4″ NPT Industrial, municipal main

Flow Rate Calculator

Select your nozzle size and water pressure to see the estimated flow rate. Flow rates are calculated using the standard orifice equation with a K coefficient of 0.82 for the Fractal Water vortex nozzle geometry (true bore, no restriction).


Flow Rate Reference Tables

Estimated flow rates (GPM) for each nozzle size at common water pressures:

PSI 1/2″ 3/4″ 1″ 1-1/4″ 1-1/2″ 2″ 3″ 4″
20 2.7 6.2 10.9 17.1 24.6 43.7 98.4 174.9
30 3.4 7.6 13.4 20.9 30.1 53.5 120.5 214.2
40 3.9 8.7 15.5 24.2 34.8 61.8 139.1 247.3
50 4.3 9.8 17.3 27.1 39.0 69.2 155.6 276.6
60 4.8 10.7 19.0 29.6 42.7 75.8 170.6 303.3
80 5.5 12.4 21.9 34.2 49.3 87.6 197.0 350.3

All values in GPM. Multiply by 3.785 for LPM. Row highlighted in blue = typical residential pressure (40 PSI). K=0.82 for true-bore vortex nozzle. Actual flow varies with installation conditions.


How the Vortex Nozzle Works

Golden-Ratio Geometry

Water enters the nozzle and flows through 5 precisely shaped channels, each following a golden-ratio spline on a cone. These channels converge at the output, creating a centripetal vortex that gives the water molecules critical rotational energy.

Molecular Restructuring

The vortex action breaks apart oversized molecular clusters and begins restructuring water at the physical level. As minerals collide during the spinning process, they generate a piezoelectric effect that further energizes the water.

Increased Bioavailability

Reduced molecular cluster size increases the relative surface area available for chemical reactions — the primary mechanism behind increased solubility, bioavailability, and improved reaction efficiency across all applications.


Flow Rate Formula

For those who want to calculate flow rates manually, the simplified orifice flow formula is:

Q (GPM) = 19.636 × d² × K × √h

  • Q = Flow rate in gallons per minute (GPM)
  • d = Bore diameter in inches (true bore = nozzle size)
  • K = Nozzle coefficient (0.82 for Fractal Water true-bore vortex nozzle)
  • h = Head in feet (= PSI × 2.31 for water)

To convert: GPM × 3.785 = LPM  |  PSI × 2.31 = Head (feet)  |  GPM × 0.0631 = liters/second


Factors Affecting Actual Flow

  • Pipe wall roughness — internal friction losses vary with pipe material and age
  • Scale buildup — calcium deposits reduce effective pipe diameter (the Imploder helps prevent this)
  • Upstream restrictions — valves, fittings, and bends reduce available pressure at the nozzle
  • Fluid viscosity — calculations assume water; other fluids require viscosity correction
  • Temperature — higher temperatures reduce viscosity slightly, increasing flow
  • Elevation changes — vertical pipe runs affect available pressure at the nozzle

Need help sizing your system? Call us toll-free at 1 (888) 897-6968 and our team will help you select the right nozzle size for your application, pipe diameter, and flow requirements.


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