SYSTEM.INITIALIZE: BLUEPRINT_UNFOLD
DWG TITLEPORTFOLIO BLUEPRINT
DRAWN BYDINESH KUMAR
SCALE1:1
REVISIONA.02
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Fluid Dynamics & Hydraulics

Research-Grade CFD Pipe Flow Simulator

Analyze fluid shear stress profiles, Lockhart-Martinelli bubbly flow parameters, radial conduction insulation layers, and transient water hammer surges using an iterative Newton-Raphson Colebrook solver.

Flow Regime
Turbulent
Re = 979,240
Friction Factor
0.0135
Darcy-Weisbach f
Outlet Temp.
20.0 °C
Convection thermal rise

Parameters

Parameter Category
Fluid Presets
Flow velocity sweeps

Thermohydraulic Governing Equations

Implicit Colebrook-White
1/f = -2·log10( ε/(3.7D) + 2.51/(Re√f) )
Herschel-Bulkley Velocity profile
u(r) = Vmax · [1 - ((r - r_plug)/(R - r_plug))^((n+1)/n)]
Lockhart-Martinelli Multiplier
ΔP_2φ = Φ_l² · ΔP_liquid
Joukowsky shockwave surge
ΔP_surge = ρ · a · ΔV · min(1, t_crit/t_close)

The friction factor is solved dynamically using an iterative Newton-Raphson Colebrook solver.

Conjugate thermal transport models fluid internal convection combined with radial wall and insulation conduction.

Joukowsky pressure shockwaves are simulated upon stopping the velocity sweeps (emergency valve closure).

Laminar vs Turbulent Boundary Layers & Moody diagram

TE-10120.0°CPT-101500 kPaPT-102499 kPaTE-10220.0°CZOOM ε: 50 µmRe: 979,240f_Darcy: 0.0135MOODY INSTRUMENTTRANSITION
Pressure Drop
0.5kPa
Reynolds Number
979240
Water Hammer Surge
79.8kPa
L/D Ratio
NaN

Hydraulic Pressure Drop vs Velocity Curve

Velocity Sweep Results

Velocity (m/s)Pressure Drop (kPa)
0.5 m/s0.0 kPa
2 m/s0.5 kPa
3.5 m/s1.6 kPa
5 m/s3.2 kPa
6.5 m/s5.3 kPa
8 m/s7.9 kPa
9.5 m/s11.1 kPa
11 m/s14.9 kPa
12.5 m/s19.1 kPa
14 m/s24.0 kPa