Pipeline Rules of Thumb Handbook: Quick and Accurate Solutions to Your Everyday Pipeline Problems, Sixth Edition

Chapter 13: Liquids Hydraulics

MARINE HOSE DATA

This section presents data on how to calculate the length of hose, and pressure loss, through marine hose.

CALM System

The overall length of the floating hose string is designed as follows:


where:

TL = Required overall length

C = Diameter of buoy

R = Length of mooring hawser

E = Max. elongation of mooring hawser

B = Beam of tanker

L = Distance between bow and manifold

H = Maximum (light ballast) freeboard (approx. 0.8 tanker depth)

M = Distance between rail and manifold

G = Height of manifold from deck

SALM System

The required overall length of hose string is designed as follows:


where:

? = Distance between hose arm [*] and floating hose

R = Length of mooring hawser


TW = ??+W 2

W = Maximum water depth at hose arm [*]


where:

TL = Required overall length of hose string

HM = Max. horizontal movement of buoy

R = Length of mooring hawser

E = Max. elongation of mooring hawser

B = Beam of tanker

L = Distance between bow and manifold

H = Maximum light (ballast) freeboard (approx. 0.8 tanker's depth)

M = Distance between rail and manifold

G = Height of manifold from deck

Tandem System

The required overall length of hose string is designed as follows:


where:

TL = Maximum water depth at hose arm

LF = Distance between manifold and stern of floating storage vessel (FSV)

HF = Max. height of manifold of FSV...

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