A resin made container includes a spout portion to/from which a cap can be attached/detached, a shoulder portion continuous with the spout portion, a body portion continuous with the shoulder portion and a bottom portion continuous with the body portion and disposed at a lowermost part. A decompression absorption portion provided in form of a recess in the body portion includes a bulging area protruding to the outer side of the container.

Methods are described that perform a dispatched consumer-to-store return or swap logistics operation for an item being replaced using a modular autonomous bot apparatus assembly and a dispatch server. The method begins with receiving a return operation dispatch command that includes identifier information, transport parameters, and designated pickup information for the item being replaced/returned, along with authentication information related to an authorized supplier of the item being replaced. Modular components of the bot apparatus are verified to be compatible with the dispatched logistics operation. The MAM then autonomously causes the bot apparatus to move to the designated pickup location, notifies the authorized supplier of an approaching pickup, receives supplier authorization input to permissively allow access to a payload area within the bot apparatus, monitors loading as the item being replaced is received along with return documentation, and then autonomously causes movement of the bot apparatus back to the origin location.

An installation for supporting a worker on a tank: The tank includes a plurality of vertical staves held to define a peripheral wall by a plurality of hoops. A top bracket at the top hoop has a tie-on receiving fixture for attachment to a worker's tie-on at the outer end of the bracket. The tie-on bracket on the top hoop is shaped to not pivot up and down around the top hoop. At least one lower hoop is located on the side of the tank. Each lower bracket at each lower hoop has a tie-on receiving fixture for attachment to a worker's tie-on at the outer end of the bracket. Each lower bracket is shaped and positioned for being able to be pivoted up and down around its lower hoop. A threaded end region on the end of a hoop segment passes through a hole in the respective bracket. A nut is tightened on the threaded end region for holding the bracket to a junction fixture on the end of a respective hoop segment. The adjacent hoop end regions or hoop segment end regions are held in the junction fixture to form the respective hoop.

A heavy-duty, thermoplastic storage bin comprises a rectilinear base, spaced columns integrally formed with the base, and rectangular end and side panels that are foldable and erectable with respect to the base. At least one of the panels is detachable from the base. At least one central column having an integral portion protrudes upwardly from an upper base surface and is interlockable with a corresponding side panel at a bottom center region, for generating a sufficiently high sagging resisting moment. In a method for emptying the bin, the base is supported by a forklift, after the bin has been loaded with desired products. Following a material handling operation by the forklift, a tilting device carried by the forklift is operated to sufficiently change a disposition of the bin such that the loaded products are caused to be emptied while a side panel remains engaged with the central and corner columns.

A method of manufacturing a delaminatable container is provided that is capable of uniformly delaminating the inner bag from the outer shell. According to the first aspect, a container body is formed having an outer shell and an inner bag. The inner bag preliminary delaminated from the outer shell in an entire circumference of a storage portion of the container body by rotating the container body while pressing the storage portion with a pressing mechanism from outside for compression or by moving the pressing mechanism along an outer circumference of the container body.

A parts assembly, a tank, and a panel discussed, including a first wall; a second wall, a first edge of the first wall facing a second edge of the second wall; a first flange connected to and extending outward from the first wall; a second flange connected to and extending outward from the second wall, the second flange being spaced from and disposed opposite the first flange; at least one fastener extending through and connecting the first flange and the second flange, the at least one fastener being pre-tensioned; and at least one rigid spacing member disposed between the first flange and the second flange, the rigid spacing member being spaced from the at least one fastener, the rigid spacing member being in contact with the first and second flanges, the at least one fastener being disposed between the rigid spacing member and the first and second walls.

The present invention relates to a silo (1) comprising one or more cells (2), each cell comprising one or more outlet openings (3), wherein said cells have an angular cross-section and wherein said outlet openings have a non-angular cross-section, wherein said outlet openings and said cells are connected to one another by means of a transition plate (4), wherein the angle a between the wall of the cell and said transition plate is constant along the radial periphery of the outlet opening. The present invention also relates to a kit and a method for constructing such silo.

A housing for inspecting and replacing a wear plate maintained within the interior of the delivery unit compartment without entering the confined space compartment.

A volume adjustable container system is provided, the system including at least a sliding track system disposed longitudinally along the inside walls of a container, wherein the sliding track system further comprises a plurality of variably and scalably adjustable restraint receiving members. Association of the longitudinally disposed track system with a vertically disposed track system; the addition or substitution of other similar track systems disposed in neighboring configurations arranged throughout a wide range of angular sweep; and a wide variety of restraining elements and restraining element receiving members, are also provided.

This invention relates to inner-plies for bulk-bags that surprisingly offer not only high thermal resistance, but also high flex-crack resistance. This invention also relates to such bulk-bags made for packaging of flowable materials, aseptic or otherwise, and the process for improving their flex-crack and thermal resistance. Preferably, the packaging is aseptic. More specifically, the inner-ply of the invention comprises a resin blend comprising the Exceed® XP resin; an LDPE resin or an ethylene—α-olefin copolymer (EAO copolymer); or a blend of said LDPE resin and said EAO copolymer, with flex-crack resistance improved in both machine direction and transverse direction, in conjunction with an improved thermal resistance. Thus, in addition to possessing good flex-crack resistance, the bulk-bags can withstand steam sterilization and/or aseptic packaging conditions.