A supporting arrangement for a carried load, more particularly a load carried on a ship such as, for example, a container, is provided. The supporting arrangement provides for connecting, in a non-rigid manner, the carried load to a bearing structure integral with the ship and to this aim it comprises a plurality of movement dampers interposed between the carried load and the bearing structure. The dampers can be directly interposed between the load and the bearing structure; alternatively, the supporting arrangement further comprises a supporting frame and the movement dampers are applied to the supporting frame. Owing to the fact that the carried load is not rigidly connected to the structure of the ship, the movements to which the ship is subjected during sea travel, especially because of wave movement, are not transmitted to the carried load, which therefore does not risk falling overboard.

A supporting arrangement for a carried load, more particularly a load carried on a ship such as, for example, a container, is provided. The supporting arrangement provides for connecting, in a non-rigid manner, the carried load to a bearing structure integral with the ship and to this aim it comprises a plurality of movement dampers interposed between the carried load and the bearing structure. The dampers can be directly interposed between the load and the bearing structure; alternatively, the supporting arrangement further comprises a supporting frame and the movement dampers are applied to the supporting frame. Owing to the fact that the carried load is not rigidly connected to the structure of the ship, the movements to which the ship is subjected during sea travel, especially because of wave movement, are not transmitted to the carried load, which therefore does not risk falling overboard.

A transport vehicle includes a first support surface and two opposite guiding surfaces that are oriented towards each other to guide a container that is placed onto the transport vehicle in the direction of the first support surface, with the first support surface located between the guiding surfaces, and with a lifting platform arranged between the guiding surfaces. An adapter that is movable between a standby and an operating position such that a container placed onto the vehicle is guided onto the first support surface when the adapter is in the standby position and the lifting platform is down in a transporting position, while the container is guided onto a second support surface formed by the lifting platform when the adapter is placed on the transport vehicle in the operating position of the adapter and when the lifting platform is placed on the transport vehicle via the adapter.

The mobile platform cabin (20) disclosed herein comprises a passenger portion (22), a first cargo portion (24) disposed aft of the passenger portion (22), a partition (36) separating the passenger portion (22) from the first cargo portion (24), a second cargo portion (26) disposed aft of the first cargo portion (24) and a barrier net (38) separating the first cargo portion (24) from the second cargo portion (26). The first cargo portion (24) comprises a cargo-receiving zone (40) and a stay-out zone (44) in which cargo is not permitted. The barrier net (38) is configured to distend into the first cargo portion (24) when restraining forward movement of cargo (48) in the second cargo portion due to the cargo (48) in the second cargo portion being subjected to an acceleration relative to the cabin. At least part of the distension of the barrier net (38) is accommodated by the stay-out zone (44) of the first cargo portion (24).

A pallet adapter, system and method for restraining air cargo during flight are disclosed. A pallet adapter shifts a shipping container in an inboard direction of an aircraft so that the container does not contact an interior structure of the aircraft. Rigid restraints restrain the container from moving in the vertical direction during flight. Corner fittings restrain the container from moving in the fore-and-aft direction and the side-to-side direction during flight.

A shock isolation system includes at least one isolator configured to be removably secured to an exterior of a container and at least one foot in communication with the at least one isolator and configured to contact a support surface. The isolator has a first end proximate the support surface and an opposing second end distal from the support surface, and is configured to transition between a first, contracted position and a second, expanded position. In a stowed configuration of the system, the isolator is in the contracted position and a bottom end of the container is spaced apart from the foot at a first distance. In a deployed configuration of the system, the isolator is in the expanded position and a bottom end of the container is spaced apart from the foot at a second distance which is greater than the first distance.

A shock isolation system includes at least one isolator configured to be removably secured to an exterior of a container and at least one foot in communication with the at least one isolator and configured to contact a support surface. The isolator has a first end proximate the support surface and an opposing second end distal from the support surface, and is configured to transition between a first, contracted position and a second, expanded position. In a stowed configuration of the system, the isolator is in the contracted position and a bottom end of the container is spaced apart from the foot at a first distance. In a deployed configuration of the system, the isolator is in the expanded position and a bottom end of the container is spaced apart from the foot at a second distance which is greater than the first distance.

A clamping device secures an equipment rack during shipping. The clamping device includes a gripping portion having first and second surfaces positionable along opposing sides of a respective one of a front and rear lateral logistic bar. The clamping device also includes a clamp mechanism attached to the gripping portion for movement between a disengaged position and an engaged position to selectively engage the first and second surfaces to the opposing sides of the respective one of the front and rear lateral logistic bars positioned adjacent to an equipment rack within a carrier shipping enclosure. A mounting feature is attached to the gripping portion to hold one end of a longitudinal logistic bar positioned along a lateral side of the equipment rack.

A process for lashing containers with a power tool, a lashing rod (2) connectable to a container and a turnbuckle (1) connectable to a container transport vehicle. The turnbuckle comprises a first connection part (14) connectable to the lashing rod and second connection part (15) connectable to the container transport vehicle, the turnbuckle being rotatable around it's longitudinal axis (L). At least one of the connection parts comprises a tensioning part (144) for tensioning the lashing rod by adapting the overall length of the turnbuckle and lashing rod. The tensioning part is driven by a drive part (145) which is operated by a power tool. For lashing a container the turnbuckle is connected to the container transport vehicle and the lashing rod, which is connected to the container. The turnbuckle is rotated until the drive part is accessible by the power tool. Then, the drive part is driven by the power tool.

A pallet adapter, system and method for restraining air cargo during flight is disclosed. A pallet adapter shifts a shipping container in an inboard direction of an aircraft so that the container does not contact an interior structure of the aircraft. Rigid restraints restrain the container from moving in the vertical direction during flight. Corner fittings restrain the container from moving in the fore-and-aft direction and the side-to-side direction during flight.