A mason jar seal device is provided. The mason jar sealing device includes a first container body. The first container body comprises a first container part, a first container wall surrounding the first container part and extending from the first container part, a partition coupled to an inner side of the first container wall and spaced apart from the first container part, a first barrel wall coupled with the partition for forming a first air-extraction port together with the partition, and a second barrel wall disposed on a side of the first barrel wall away from the partition for forming a second air-extraction port for communicating with the first air-extraction port. The first air-extraction port and the second air-extraction port are configured to seal different sizes of mason jars.

Apparatus extracting, from trays, bottles with mouths facing downwards includes an advancement line stopping the trays at a rest station; a handling organ; and a bottle pickup and transfer mechanism having a suction plate, with suction seats receiving and retaining the bottles internally. A frame with a housing receives and releasably retains the suction plate. The frame rotates about a first axis to a first operating position near the rest station and to a second operating position near the handling organ. Grippers and moving mechanisms pick up and move the suction plate above the tray with the seated bottles, raise the plate with the bottles, and then position the plate at the housing in the first operating position.

A content-filling system (10) includes a water sterilization line (50) that sterilizes water without heating, an undiluted-solution sterilization line (70) that heats and sterilizes a product undiluted solution, and a filling device (20) that is connected to the water sterilization line (50) and the undiluted-solution sterilization line (70) and that fills the water and the product undiluted solution in bottles (100).

In a blow/fill/seal packaging machine, aseptic environment is provided by a telescoping fill station shroud through which a sterile curtain gas flows. The telescoping fill station shroud includes an open-ended lower sleeve, an open-ended upper sleeve slidably coacting with the open-ended lower sleeve, and a manifold plate mounted over a proximal end portion of the upper sleeve.

A packaged coffee product with oxygen dissolved therein along with milk and/or sweeteners in the sealed packaging is provided. Preferably, the pH of the product is 4.6 or greater, preferably 5.0 or greater. The coffee product may be hot or cold brew coffee and may have other gasses such as nitrogen and/or carbon-dioxide in the sealed container. Ideally, there is oxygen in both the headspace and liquid portion of the beverage in order to inhibit C. bot growth without requiring retort processing. Preferably, the calorie count is in the range of 0.5-9 calories per ounce.

The present disclosure relates to an attachment unit for attaching a container element to a container body. The attachment unit comprises a retaining device adapted to retain the container body while the container element is being attached to the container body and an applicator for positioning the container element in the container body. The retaining device comprises at least one through-going positioning cavity being adapted to receive a portion of the container body. The applicator is aligned with the positioning cavity, such that the container element is displaceable by means of the applicator into the container body by moving at least partly through the positioning cavity of the retaining device. The attachment unit comprises an internal housing arranged to provide and maintain a protective gas atmosphere above the positioning cavity of the retaining device. The internal housing is adapted to at least partly enclose the applicator.

A pack comprising a supporting tray (3), a protective film (4) fixed to the supporting tray (3), and a food product (2) placed on the supporting tray (3) and covered by the protective film (4), wherein the supporting tray (3) is constituted of a flat sheet of multi-layer material and comprises at least one paper-based lower layer and one plastic material upper layer, wherein the protective film (4) is sealed to the upper layer of the flat sheet and together with it delimits an inner space (6) of the pack (1) in which the food product (2) is inserted, and wherein a protective atmosphere is present in the inner space (6).

A packaged assembly of a hermetically sealed container and cigarette, and method of forming the assembly. The container is hermetically sealed for airtight conditions for freshness, whereby an interior space is either filled with an inert gas or is evacuated down to a pressure close to 0 atm to remove substantially all air (oxygen) from within. The container may be clear glass to afford good visibility of the cigarette within an interior space thereof. However, a relatively large label may be affixed to the exterior of the container to occlude most of the light from reaching the cigarette.

A method and system involves vacuum sealing a semi-enclosure at room temperature without requiring mechanical actions within the vacuum chamber. The semi-enclosure has an inlet channel that extends inwardly into the vacuum chamber from an exterior opening (entryway) into the semi-enclosure. An uncured entryway vacuum sealant is provided at the entryway for the semi-enclosure. A vacuum is established in the vacuum chamber until the vacuum pressure reaches a desired vacuum pressure that causes the uncured entryway sealant to be provided to the entryway for the semi-enclosure. The uncured entryway vacuum sealant is cured under vacuum pressure in the semi-enclosure in the vacuum chamber.

A gas mixing system for providing mixed gas for intraocular injection. In some embodiments, a first fixed-volume chamber is automatically purged and filled with gas from a first gas supply input, to a first predetermined pressure. A second fixed-volume chamber is purged and filled with gas from a second gas supply input, to a second predetermined pressure. The first and second predetermined pressures are determined based on a desired concentration of gases in the final mix, and the respective volumes of the first and second fixed-volume chambers and of a third fixed-volume chamber. Gas from the first fixed-volume chamber is then allowed to mix with gas in the third fixed-volume chamber, which was previously purged. Next, gas from the second fixed-volume chamber is allowed to mix with gas in the third fixed-volume chamber. Finally, the mixture of gases in the third fixed-volume chamber is expressed into an intraocular syringe.