Container having support for a membrane (30) which is sealed (by sealing means or adhesive bonding) onto the inner side (41) of the container wall (40) of the container, particularly while the container is being filled with contents or by virtue of a positive pressure being introduced. The intention is to relieve the sealing of the membrane of loading, wherein the action of force during the filling operation from beneath is advantageous or easily withstandable. For this purpose, the container is provided with the container wall (40), a container opening (2), a lid (10), the membrane (30) and a supporting structure (20). The lid (10) closes the container opening (2). A portion of a membrane collar (31) of the membrane (30) is fastened on a portion of the inner side (41) of the container wall (40), a fastening region (33) therefore being formed. The supporting structure (20) has a supporting portion (21) and a carrying portion (22). The supporting portion (21) is assigned to the membrane (30) and the carrying portion (22) is assigned to the lid (10).

What is proposed is a closure unit consisting of a glass container (50) with external, circumferentially offset threaded elements (54, 55) on a container neck (52) of the glass container, and a closure cover made of sheet metal, wherein the closure cover (1, 2) has an encircling plastics layer (30; 30h, 30v) on the inside of the cover. The closure cover is pressed onto the container neck (52) and can be opened with a rotational movement via the threaded elements (54, 55) and a vertical section (30v) of the plastics layer. The container neck (52) has a horizontal end surface (52a) on which a horizontal section (30h) of the plastics layer rests under pressure in a sealing manner. A central region (11) of the closure cover passes with an adjoining, circumferentially oriented transition zone (11a, 11b, 11c) into an axially downwardly projecting skirt section (12) which ends in a roll-up region (21a, 21; 22). The plastics layer (30; 30h, 30v) is arranged on the inside of the cover in a manner adhering to the transition zone (11a, 11b, 11c) and the skirt section (12). An axial extent (h.sub.0) of the skirt section (12) and a radial dimension (b52) of the horizontally oriented end surface (52a) of the container neck (52) form a first ratio (v.sub.1) which is smaller than three.

A closure assembly for a bag, comprises, a first closure having a first longitudinal member, the first longitudinal member having a first end and a second end, the longitudinal member being provided with a clamping arrangement adapted to clamp a bag, the clamping arrangement comprising a first clamp at the first end and a second clamp at the second end, wherein, a bottom surface of the longitudinal member comprises two edges adapted to be separated under force and snap into a closed position elastically, wherein the first clamp and the second clamp are adapted to limit the separation between the two edges and a second closure having a second longitudinal member, the second longitudinal member having a hollow cross section defining a cavity adapted to receive the first closure.

The subject matter discloses a capping apparatus comprising: a top plate connected to a fluid container, said top plate comprises an apparatus opening through which fluid is dispersed from the fluid container; wherein the apparatus opening is defined by an opening wall; a rigid cork that is slide-ably moveable between a first state in which a cork is snapped into the apparatus opening and a second state where the cork is snapped out of the apparatus opening, wherein the cork moves between the first state and the second state in a horizontal direction.

The present disclosure provides a dual-seal reverse pressure differential cartridge E-liquid injection method. The method includes: selecting an E-liquid guiding body configured to absorb, to a maximum degree, an E-liquid stored in an E-liquid storage tank, to avoid leakage of the E-liquid, while providing a smooth supply of the E-liquid. The method also includes assembling the E-liquid guiding body with a cartridge that includes an E-liquid storage tank. The E-liquid guiding body is in fluidic communication with the E-liquid in the E-liquid storage tank. In a negative pressure environment, the E-liquid is injected into the E-liquid storage tank. The E-liquid has a pressure P1. After the injection is completed, the cartridge is placed in a sealing bag, which is then sealed. The pressure inside the sealing bag is P2, P2>P1. The disclosed method can effectively avoid leakage of the E-liquid due to pressure changes in the external atmosphere.

The invention relates to a container made of glass or hard plastic having a container neck (52) with a plurality of external thread elements (53, 54, 55, 56, 57, 58), which are offset circumferentially relative to one another, as thread segments. The container can be closed by means of the thread segments by a closure cap made of metal sheet, wherein the closure cap (1, 2) has a circumferential plastic layer (30;30h,30v) on the inside of the cap and on the rim of the cap which has a sealing and retaining action. The closure cap can be pressed onto the container neck (52) and over the thread elements (53, 54, 55, . . . ) during closure and a vertical portion (30v) of the plastic layer can be opened with a rotary movement relative to the thread segments (53, 54, 55, . . . ). The container neck (52) has an upper horizontal end face (52a) as an annular surface which is adapted and suitable to be pressed into a horizontal portion (30 h) of the plastic layer (30;30h,30v) of the closure cap (1.2) under pressure and to produce a seal under pressure. An axial spacing (h54) is defined which extends between axially upper ends (53a, 54a, 55a, 56a, 57a) of the thread segments (53, 54, 55, 56, 57, 58) and a horizontal plane (E52a) through the horizontally oriented end face (52a) of the container neck (52) of the glass container (50). An annular width (b52) of the upper horizontal end face (52a) is defined as an annular surface. A ratio of the axial spacing (h54) to the annular width (b52) is less than 1.35.

A peel-off lid with a rolled-in section around the extraction opening is formed in such a way that before forming the rolled-in section a thin plastic strip is applied onto the collar of the lid ring. After forming the rolled-in section, the plastic strip is melted in order to reach a good adhesion of the plastic on the upper side and the underside of the peel-off lid in the rolled-in section. In this way it is possible to reach a practically hermetic sealing of the cutting edge of the peel-off lid in an inexpensive way and with the possibility to manufacture with high cadence.

A roll of sanitary tissue product that includes a shaped line of weakness, wherein the roll of sanitary tissue product exhibits a roll compressibility of from about 2% to about 10%, and a Full Sheet Tensile Strength of between about 400 g and about 850 g, as measured by the Full Sheet Tensile Strength Test Method.

Provided is a container for storing, preserving, identifying, tracking and transporting a federally controlled substance having a child resistant and senior friendly lid, and a process for identifying and tracking federally controlled substances within the re-sealable containers. The federally controlled substance containers include a two-piece child resistant and senior friendly lid and a 2-factor authentication identification tag, as well as a microchip for identifying the container controlled substance contents and tracking the container. Controlled substance contents within the containers are optimized for long term storage by removal of the oxygen therein, and the containers and controlled substance contents can be readily identified, detected, tracked and traced after being filled with a federally controlled substance.

Production systems for producing a radioactive drug product include a hot cell having a radiation isolating shielding and a dispensing unit positioned within the hot cell. The dispensing unit includes a manipulator arm for manipulating a closure component of a vial. The system further includes a pneumatic line extending from the manipulator arm and through the radiation isolating shielding to a location outside of the hot cell and a pressure sensor connected to the pneumatic line and positioned outside of the radiation isolating shielding. The pressure sensor is operable to detect air pressure within the pneumatic line.