Methods, apparatuses and systems for sealed dimpled film packages. A vacuum box having apertures, a dimpled bottom film sheet is placed on the base plate and an item to be packaged can be placed on the bottom dimpled film sheet. A top film sheet in a clamp frame is heated to a processing temperature and lowered towards the item and dimpled bottom film sheet. Vacuum suction causes sealing of the clamped top film sheet against the package from the base to the perimeter extending at an angle more than 5 degrees. The top film sheet is pulled down using the vacuum suction into contact with the dimpled film sheet from the base perimeter on the dimpled film sheet outward toward the perimeter of the dimpled film sheet forming a seal.

This packaging method for polycrystalline silicon is for reducing contamination by surface organic impurities, in particular surface carbon impurities. After a packaging bag is filled with polycrystalline silicon, a portion of the packaging bag on the opening part side relative to a filled part where the polycrystalline silicon is filled and on the filled part side relative to a planned heat-seal part where the packaging bag will be heat-sealed is clamped by clamping rods such that no gas flows into the filled part, the planned heat-seal part is heat-sealed by sealing rods on both sides while clamped by the clamping rods, and the clamping rods are removed after the heat-sealing.

A packaging system includes a first sealer and a gas flusher. The first sealer creates a first seal in packaging material along a direction of travel of the packaging material, thereby forming a packaging loop. The gas flusher flushes ambient air from the packaging loop and includes a mechanically retractable lance that can be selectively repositioned relative to the first sealer. When the mechanically retractable lance is in an operative position, the mechanically retractable lance projects into the packaging loop, with a gas flowing through the mechanically retractable lance into the packaging loop.

A packaging system includes a first sealer and a gas flusher. The first sealer creates a first seal in packaging material along a direction of travel of the packaging material, thereby forming a packaging loop. The gas flusher flushes ambient air from the packaging loop and includes a mechanically retractable lance that can be selectively repositioned relative to the first sealer. When the mechanically retractable lance is in an operative position, the mechanically retractable lance projects into the packaging loop, with a gas flowing through the mechanically retractable lance into the packaging loop.

A carton for containing at least one article. The carton comprises at least one panel that can form an interior of the carton. The carton comprises at least one protection feature for protecting the articles from breakage. The article protection feature can comprise at least one feature in end flaps of the carton. The article protection feature can comprise an article protection flap foldably connected to the at least one panel. The article protection flap can be moveable between a first position and a second position wherein the article protection flap is folded relative to the at least one panel.

The present invention discloses a new method of packing and preserving fruits in liquid (fruit juice, syrup, water, etc). The method comprises packaging fruits, where the fruit is filled into a specifically formulated plastic container, topped with liquid, dosed with inert gases to enforce can integrity, seamed with metal can ends, and thermally processed to eliminate viable microorganisms. The process is unique in that by adjusting thermal processing parameters and manipulating the seam specifications, replacing the metal cans by a flexible and sustainable plastic can, becomes a practical alternative.

The present invention discloses a new method of packing and preserving fruits in liquid (fruit juice, syrup, water, etc). The method comprises packaging fruits, where the fruit is filled into a specifically formulated plastic container, topped with liquid, dosed with inert gases to enforce can integrity, seamed with metal can ends, and thermally processed to eliminate viable microorganisms. The process is unique in that by adjusting thermal processing parameters and manipulating the seam specifications, replacing the metal cans by a flexible and sustainable plastic can, becomes a practical alternative.

A fluid distribution system is configured to distribute fluid from a first vessel to second vessels includes a hub assembly and a frame assembly. The hub assembly has an input cap, a distribution cap, a first clamp, and a second clamp. The input cap defines an inlet and the distribution cap is sealingly secured to the input cap with a plenum being defined between the input and distribution caps. The distribution cap includes conduit connectors that each defines an outlet in fluid communication with the plenum. The first clamp is disposed over the distribution cap and is engaged with the input cap to secure the input cap to the distribution cap and the second clamp is disposed over the input cap and engaged with the distribution cap to secure the distribution cap to the input cap. The frame assembly supports the hub assembly and is configured to secure each of the secondary vessels at a predetermined distance relative to the hub assembly.

An example of a shipping and handling fluid for a three-dimensional (3D) printer is disclosed. The shipping and handling fluid includes a co-solvent, a first sugar alcohol, a second sugar alcohol, a surfactant, and a balance of water. The first sugar alcohol includes a ring structure, and the second sugar alcohol has a linear structure.

An example of a shipping and handling fluid for a three-dimensional (3D) printer is disclosed. The shipping and handling fluid includes a co-solvent, a first sugar alcohol, a second sugar alcohol, a surfactant, and a balance of water. The first sugar alcohol includes a ring structure, and the second sugar alcohol has a linear structure.