A shipping assembly to transport various components of a hammer mill including a hammer, a spacer, and/or a lock collar. The shipping assembly may hold a hammer in a pair of jaws that aligns an opening in the hammer with a spacer held in a collar or a lock collar held in a pair of exterior prongs so that a rod can be inserted through the components. A handle may be received through a stop arm to further secure the hammer mill components and simplify install into the hammer mill.

A momentum arresting ramp that includes a plurality of steps that each includes a slider receiving surface and a transition surface. The steps may enable a device with wheels to be moved down the ramp by a user, without inconvenient gravity building momentum of the device down the ramp. For example, the steps may be spaced apart along a first axis such that a first slider of the device is never in contact with one of the transition surfaces when a second slider of the device is in contact with another one of the transition surfaces. The configuration of the steps and the sliders may enable the device (e.g., a device heavy enough to typically require two users to unload using a planar ramp) to be easily and conveniently unloaded by a single user.

A crane block holder includes a base made of steel of a thickness of at least ½ inch with several holes cut or formed therein. Each hole has an inner dimension. There are several crane block support arms, each of which has an arm portion connected to a peg that has a shoulder. An outer dimension of the peg is less than or equal to the inner dimension of the holes allowing snug insertion. An outer dimension of the shoulder is greater than the inner dimension of the holes such that upon insertion of the pegs into the holes, the shoulder limits how far the peg can be inserted. By inserting two or more crane block support arms of the plurality of crane block support arms into selected holes of the base, the two or more crane block support arms support a selected crane block.

A packing structure is a packing structure including an electronic device including a device main body, an accommodation bag accommodating the device main body, a shock absorbing member coming into contact with ribs formed at a bottom surface of the device main body via the accommodation bag, and a packing box accommodating the device main body via the accommodation bag and the shock absorbing member, in which the shock absorbing member is corrugated cardboard having cores extending in parallel with one side of a bottom surface of the packing box, and the ribs extend in a direction intersecting a first direction in which the cores extend.

The present disclosure relates to a shock-absorbing buffer for a base station antenna. The base station antenna includes a first end portion having a first end surface, a second end portion having a second end surface, and a protruding element which is at least provided on the first end surface and protrudes outward. The shock-absorbing buffer includes an inner buffer member and an outer buffer member. The inner buffer member is configured to at least partially cover the protruding element, the first end portion, and the second end portion, and the outer buffer member is configured to sleeve the inner buffer member and at least partially cover the first end portion and the second end portion. The inner buffer member and the outer buffer member are respectively made into a pre-formed structure from an inflatable air bag, and the inflatable air bag can form a plurality of air columns after being inflated. At least a part of the air columns of the inner buffer member cross each other, or at least a part of the air columns of the outer buffer member cross each other, or at least a part of the air columns of the inner buffer member and at least a part of the air columns of the outer buffer member cross each other, so as to enhance the performance of the shock-absorbing buffer through a synergistic effect.

This invention is directed towards the packaging of heavy articles such as floor jacks and similar equipment. The package is adapted to allow a heavy article to be rolled out of the package without lifting. The packaging is designed to engage with temporary handles positioned on the packaged article to make it easier for an end user to maneuver the packaged article and to remove the article from the packaging.

The present disclosure relates to a shock-absorbing buffer for a base station antenna. The base station antenna includes a first end portion having a first end surface, a second end portion having a second end surface, and a protruding element which is at least provided on the first end surface and protrudes outward. The shock-absorbing buffer includes an inner buffer member and an outer buffer member. The inner buffer member is configured to at least partially cover the protruding element, the first end portion, and the second end portion, and the outer buffer member is configured to sleeve the inner buffer member and at least partially cover the first end portion and the second end portion. The inner buffer member and the outer buffer member are respectively made into a pre-formed structure from an inflatable air bag, and the inflatable air bag can form a plurality of air columns after being inflated. At least a part of the air columns of the inner buffer member cross each other, or at least a part of the air columns of the outer buffer member cross each other, or at least a part of the air columns of the inner buffer member and at least a part of the air columns of the outer buffer member cross each other, so as to enhance the performance of the shock-absorbing buffer through a synergistic effect.

The present invention relates to a milling unit, in particular to a milling unit of a road milling machine, a transport vehicle with a transport device and a vehicle, as well as a method for transporting a milling unit, in particular using a transport vehicle according to the present invention.

An apparatus may include a breadboard. The breadboard may include a substantially flat board, which may include a top surface and a bottom surface. The top surface may be disposed opposite the bottom surface. The board may include one or more openings disposed in the board. The apparatus may include a pallet. The pallet may include a top surface and a bottom portion disposed opposite the top surface. The pallet may include a plurality of risers, which may be disposed on the bottom portion and extend in a direction opposite the top surface. The bottom surface of the breadboard may be mountable to the top surface of the pallet. One or more circuit breakers may be disposable on the top surface of the board of the breadboard. The breadboard and pallet may be reusable in transporting circuit breakers.

A momentum arresting ramp that includes a plurality of steps that each includes a slider receiving surface and a transition surface. The steps may enable a device with wheels to be moved down the ramp by a user, without inconvenient gravity building momentum of the device down the ramp. For example, the steps may be spaced apart along a first axis such that a first slider of the device is never in contact with one of the transition surfaces when a second slider of the device is in contact with another one of the transition surfaces. The configuration of the steps and the sliders may enable the device (e.g., a device heavy enough to typically require two users to unload using a planar ramp) to be easily and conveniently unloaded by a single user.