Some modern mooring systems include load/tension monitoring on individual lines. Beyond simply confirming the vessel is held, what additional safety value does continuous tension monitoring provide?

A. It allows early detection of a line approaching its safe working load, or of uneven load distribution across the mooring lines (which can indicate one line is doing most of the work while others are slack), enabling proactive adjustment before a line is overloaded to the point of parting

B. Tension monitoring eliminates the need for any visual inspection of mooring lines

C. Tension monitoring has no practical value beyond what a visual check of line angle already provides

D. It is only useful for billing purposes at terminals that charge by line load

A. Breast lines and spring lines serve identical functions and the names are interchangeable

B. A breast line is always made of wire while a spring line is always made of synthetic rope, by definition

C. A spring line is only used when departing, never when arriving or staying alongside

D. A breast line runs roughly perpendicular to the vessel's centreline, primarily resisting movement away from or toward the berth (off/onshore movement); a spring line runs roughly parallel to the berth, primarily resisting fore-and-aft movement along the berth

A. Lines are typically let go in an order that keeps the vessel controlled throughout the process — often retaining a spring (and sometimes a breast line) until last to control the vessel's swing or to use the spring itself to assist pivoting the bow or stern off the berth, rather than releasing all lines simultaneously and losing control of the vessel's position relative to the berth

B. The order of letting go has no effect on vessel control and is purely a matter of crew convenience

C. Lines must always be let go in the exact reverse order they were made fast, with no exceptions

D. All lines should always be let go simultaneously regardless of conditions, to minimise time alongside