Abstract: A soft shackle is provided that incorporates a locking mechanism that prevents or limits travel of a loop from passing back over a shackle knot caused by slippage when not under tension of a load. The locking mechanism controls the loop's ability to expand in size, such as through a positive locking force or establishes a safety factor with respect to the size of the loop needed to slip over the knot, or both.

Abstract: A rope system for system level recoil control and method for providing a rope system for system level recoil control are provided. The rope system includes a first rope component and a second component, and the second rope component is connected in series to the first rope component. The first rope component includes a first rope subcomponent and a second rope subcomponent, the first rope subcomponent has predetermined failure strength and is designed and configured to be a controlled failure point for the system, and the second rope subcomponent has a predetermined elongation capability. Upon failure of the first rope subcomponent, the second rope subcomponent is configured to elongate to absorb a predetermined amount of a predetermined operational strain energy of the rope system and to stretch over a predetermined distance and/or predetermined period of time before the second rope subcomponent fails.

Abstract: A soft shackle is provided that incorporates a locking mechanism that prevents or limits travel of a loop from passing back over a shackle knot caused by slippage when not under tension of a load. The locking mechanism controls the loop's ability to expand in size, such as through a positive locking force or establishes a safety factor with respect to the size of the loop needed to slip over the knot, or both.

Abstract: A fuse assembly for rope systems. A catch is a rope segment having a certain failure strength. An accompanying trigger component has a predetermined failure point which can be less than the failure strength of the catch, acting as a sacrificial element to reveal the potential risk of rope recoil. In one embodiment, the catch includes connecting ends, and the trigger is remote from the catch. In other embodiments the trigger includes the connecting ends and the catch is separate from but works cooperatively with the trigger. Additional hold components can accompany the system, as well as first and second chafe protection layers.

Abstract: A rope system for system level recoil control and method for providing a rope system for system level recoil control are provided. The rope system includes a first rope component and a second component, and the second rope component is connected in series to the first rope component. The first rope component includes a first rope subcomponent and a second rope subcomponent, the first rope subcomponent has predetermined failure strength and is designed and configured to be a controlled failure point for the system, and the second rope subcomponent has a predetermined elongation capability. Upon failure of the first rope subcomponent, the second rope subcomponent is configured to elongate to absorb a predetermined amount of a predetermined operational strain energy of the rope system and to stretch over a predetermined distance and/or predetermined period of time before the second rope subcomponent fails.