A packaging material web stock is provided. The packaging material web stock can include first and second plies overlaid and sealed to each other at a plurality of seals that include a plurality of transverse seals extending transversely across the plies, wherein a plurality of interior cavities are defined between the plies and the transverse seals, the first and second plies arranged in a web that includes a plurality of packaging units arranged longitudinally in a series along the web, wherein the first and second plies form walls of the packaging units, and at least some of the packaging units include at least one of the interior cavities, and an expansion material disposed in the interior cavities in an unexpanded configuration, wherein the expansion material is arranged within the inner cavities such that, when expanded to the expanded configuration, the expansion material is configured to provide cushioning in the walls.

A food storage container is provided that may be used to increase shelf life of produce stored therein. The food storage container is preferably used to contain produce that is often not refrigerated, and thus subject to increased humidity levels when stored inside a sealed container. The container preferably includes each of a container portion and a lid member and a container portion, wherein the lid member may be attached and removed to the container portion. The lid member may include upper and lower lid members that are also selectively engageable with one another. A water vapor permeable membrane layer is preferably secured between the upper and lower lid members to help control humidity levels within the container portion. In some embodiments, a gas permeable membrane layer may be present between the upper and lower lid members for controlling gas flow into and out of the container portion as well.

The invention relates to a container (1) made of plastic, comprising a rectangular base (2) and four lateral walls (3, 4). The lower face of the base (2) has a first stacking contour (20) on the outer edge of the base, and the lateral walls (3, 4) have a second stacking contour (30, 40) on the upper edge region of the lateral walls. When containers (1) are stacked one over the other, the first stacking contour (20) of an upper container (1) and the second stacking contour (30, 40) of a lower container (1) engage with each other in a centering manner. The upper edge region of at least two opposing lateral walls (3, 4) is reinforced by at least one respective profiled reinforcement section (5) attached to the remaining lateral wall (3, 4) in a form-fitting and/or force-fitting manner, and the profiled reinforcement section (5) or each profiled reinforcement section has at least one profiled section web (50) on the section upper face facing away from the container (1), said profiled section web running in the longitudinal direction of the profiled reinforcement section (5) and forming a sliding path (11) for another container (1) to be placed thereon.

An autonomous anti-pollution liquid container for isotope analysis of earth science area, consisting of an outer protective sleeve (1), a liquid storage main body part (2), a stabilizer storage mechanism (3), a main body base part (4), a control display part (5), a main body inner cover mechanism (6) and a neutralizer storage and releasing mechanism (7). The autonomous anti-pollution liquid container for isotope analyzing of earth science area has multiple functions of heating, refrigerating, heat preservation and the like, can monitor temperature and liquid amount in real time, and can autonomously operate to quickly neutralize and scrap a hazardous chemical agent in an emergency, thereby avoiding leakage of a hazardous article and environmental pollution, and making a logistics process safe and reliable.

A packaging material web stock is provided. The packaging material web stock can include first and second plies overlaid and sealed to each other at a plurality of seals that include a plurality of transverse seals extending transversely across the plies, wherein a plurality of interior cavities are defined between the plies and the transverse seals, the first and second plies arranged in a web that includes a plurality of packaging units arranged longitudinally in a series along the web, wherein the first and second plies form walls of the packaging units, and at least some of the packaging units include at least one of the interior cavities, and an expansion material disposed in the interior cavities in an unexpanded configuration, wherein the expansion material is arranged within the inner cavities such that, when expanded to the expanded configuration, the expansion material is configured to provide cushioning in the walls.

An autonomous anti-pollution liquid container for isotope analysis of earth science area, consisting of an outer protective sleeve (1), a liquid storage main body part (2), a stabilizer storage mechanism (3), a main body base part (4), a control display part (5), a main body inner cover mechanism (6) and a neutralizer storage and releasing mechanism (7). The autonomous anti-pollution liquid container for isotope analysing of earth science area has multiple functions of heating, refrigerating, heat preservation and the like, can monitor temperature and liquid amount in real time, and can autonomously operate to quickly neutralize and scrap a hazardous chemical agent in an emergency, thereby avoiding leakage of a hazardous article and environmental pollution, and making a logistics process safe and reliable.

The invention is a safe and stabilized storage equipment for geochemistry research belonging to the chemical storage field. The container comprises an cuter sleeve, a main body of the liquid storage, a stabilizer storage mechanism, a main body pedestal, an Main body inner lid mechanism and a Neutralizer storage release mechanism. It is mostly used for storing high-precision chemicals: maintain the chemical properties of the chemicals during storage and transport, and automatically and quickly neutralize them in case of emergency to avoid chemical leakage and environment pollution. The storage process is safe and reliable, which has benefited the storage and transport of industrial hazardous chemicals, laboratory reagents, petrochemical and coal chemical products to a certain extent.

Hazardous article handing and logistics information system for geological sciences and other purposes, comprising a liquid hazardous article logistics container (A), a Beidou satellite navigation system (B) and a remote control terminal (C). The liquid hazardous article logistics container consists of an outer protective sleeve (1), a liquid storage main body part (2), a main body outer cover part (3), a stabilizer storage mechanism (4), a main body base part (5), a control display part (6), a main body inner cover mechanism (7) and a neutralizer storage and releasing mechanism (8). Various liquid hazardous articles can be kept in a good storage environment, the whole logistics process is tracked and monitored in real time, and a liquid hazardous article logistics container can be controlled to release a neutralizer in an emergency.

A base for supporting a component of an appliance and a method of assembling the same, is formed from a single sheet having four opposing sides and a top of the base when erected. Two of the opposing sides include inner and outer panels that are affixed to one another to maintain the base in the erected configuration, and define an internal cavity therein for receiving the appliance component. When a force is applied to the appliance, the erected base supports the component, which may be the motor of a washing machine, within the internal cavity to inhibit movement of the component.

A reusable system for shipping objects is disclosed. The system includes a container and an inflatable and/or deflatable bladder. The inflatable and/or deflatable bladder is configured to be inserted and/or removed from a cavity defined by an outer shell and inner lining of the container. The inflatable and/or deflatable bladder is configured to inflate to protect objects inside the container, and also to deflate to move the system to a substantially compact configuration.