Single Phase Pressure Drop in Piping
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| The pressure drop calculation presented here applies to Newtonian fluids which are incompressible and single phase in isothermal and steady-state flow situations. The friction factor is calculated rigorously from the original Colebrook equation. | |
| A more comprehensive and powerful version of this procedure is available online through Process Associate's clients gateway (password required). WWW-based and Stand-alone versions of the full program for Windows 3.1x/95/NT and Unix operating systems are available through their coordination office. The full version of this procedure is part of their Process Designer® line of intelligent software. | |
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Flowrate |
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| Mass Basis | ||
| Volume Basis | ||
| Velocity Basis | ||
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Fluid's Physical Properties |
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| Density | ||
| Viscosity | ||
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Piping |
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| Length | ||
| Diameter | Nominal, inches (1) | Schedule(2) |
| Inside / equivalent | ||
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| Condition | New/clean | (Server will calculate roughness) |
| Fouled, abs. roughness | ||
| Fouled, rel. roughness | ||
| Fouled, typical(3) | (Server will calculate roughness) | |
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Report: |
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| pressure drop in and head loss in | ||
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