The invention is directed to a system and method for hermetically sealing a closure to a container comprising a die assembly and a mandrel assembly. The mandrel assembly comprises an outer mandrel, an inner mandrel, and an ejector disposed within an inner circumference of the inner mandrel. At least the outer mandrel is configured to translate a first distance in a first time period, the inner mandrel and the ejector are configured to translate a second distance in a second time period, the inner mandrel is configured to retract a third distance in a third time period, and the ejector is configured to retract the third distance in a fourth time period.

A heat plate lock assembly for a heat scaling machine may include clamp plates mounted on either side of a heater assembly that are movable relative to the heater assembly and engage and support a heat plate beneath a heater platen of the heater assembly. Lift arms may be mounted to and movable relative to the heater assembly, and operatively connected to the clamp plates so that movement of the lift arms causes movement of the clamp plates relative to the heater assembly. In an open position, the heat plate can be inserted between and removed from between the clamp plates. In a closed position, the clamp plates move the heat plate into contact with the heater platen and a lock mechanism engages the heater assembly to retain the heat plate lock assembly in the closed position.

Embodiments herein include a system for joining components. The system can include a rotating base platform, a plurality of receptacles mounted to the base platform, and a rotating sonotrode platform. A plurality of sonotrodes are mounted to the sonotrode platform. Each sonotrode can correspond to a receptacle. Each sonotrode can move in a reciprocating motion between a release position distant from a corresponding receptacle and a compressing position proximal to the corresponding receptacle. The compressing position occurs at a first angular position of the sonotrode platform. Each sonotrode is energized at the compressing position.

A method and apparatus can be used for vacuum skin packaging of a product. The product can be arranged on a support comprising providing a film sheet above the support with the product being arranged between the support and the film sheet. The film sheet can be air tightly fixed to the support. The wall of the support can be perforated to form at least one through hole. At least a portion of air from within the support underneath the film sheet can be removed through the at least one hole. A packaged product is obtainable using the method and apparatus.

Liner having an induction heat sealable layer for sealing to a rim of a container, and a pull tab for ease of removal of the liner from the container rim. A folded insert disposed between multilayer upper and lower components, has a heat bondable polyolefin layer that is thermally laminated to polyolefin layers of the upper and lower components, forming a pull tab between the integrated polyolefin layers. The resulting composite resists delamination and can be formed in a single thermal lamination step, avoiding the multiple lamination steps, associated high equipment costs, and complex layer constructions of the prior art.

An apparatus (1) for processing plastic cups (2), adapted to be filled with coffee or other products, whether solid or liquid, and to be closed with respective lids to form corresponding capsules, comprises: a plurality of pockets (50) for housing the cups (2); an infeed station (4) for receiving the cups (2) and placing them in respective pockets (50) of the plurality of pockets (50); at least one tool (31) for applying a process to a rear face (23B) of an annular flange (23) of a cup (2) housed a respective pocket (50), to form a sealing profile (230); an outfeed station (6) configured to release the cups (2) with the sealing profile (230) formed on them.

A method of forming a package is provided and includes providing two laminate edge portions of the package, each of which includes a foil layer between first and second resin layers; and welding together the respective first resin layers at a first position spaced apart from the edges while not welding the respective first resin layers at the edges, wherein the edge portions include edges from which electrode terminals extend such that portions of the electrode terminals are exposed beyond the edges, and wherein the edge portions are between a sealing portion and exposed portions of positive and negative electrode terminals.

A method of making a flowcell includes bonding a first surface of an organic solid support to a surface of a first inorganic solid support via a first bonding layer, wherein the organic solid support includes a plurality of elongated cutouts. The method further includes bonding a surface of a second inorganic solid support to a second surface of the organic solid support via a second bonding layer, so as to form the flowcell. The formed flowcell includes a plurality of channels defined by the surface of the first inorganic solid support, the surface of the second inorganic solid support, and walls of the elongated cutouts.

The invention relates to a sealing body, where heat-producing elements of a heating element are contacted from the rear side thereof. Other aspects relate to a sealing body where the site of the heat production and the site of the heat dissipation (i.e. the point of action) are as close to each other as possible. Other aspects relate to a sealing body comprising a heat element with a built-in temperature sensor. Other aspects relate to a sealing body with a defined sealing contour. Other aspects relate to a sealing body having a three-dimensionally structured contact surface. Other aspects relate to a sealing body with a circular, annular, or strip-type heat element. Other aspects relate to a sealing body with built-in electronic circuits. Other aspects relate to a sealing body that can cool the heating element as required. Other aspects relate to a sealing body that can suck up the material to be welded.

There is provided a cartridge sealing apparatus (1) comprising a sealing head (10) having a sealing surface (12), the sealing head being adapted in use to hold a sealing member (70) against a surface of a cartridge (100) by application of pressure to the sealing member at the sealing surface across a portion of the sealing member, a bonding layer being present between the sealing member and the cartridge thereby causing the sealing member (70) to seal the cartridge when held against the surface of the cartridge; and a cutting edge (20) arranged around the sealing head (10). The cutting edge is configured to move when the sealing member is held against the surface of the cartridge by the sealing head, from an unextended position, in which the cutting edge is located adjacent the sealing head, to an extended position, in which the cutting edge is adapted to cut the sealing member.