Pregis Intellipack Corporation

Intellipack

Supplyone

Todd Hanna

Scott Burke

Matthew Hayduk

Noelle Dye

Edward Cocciadiferro

Michael Paul Jones

Insulated package with an auto-lock bottom

A foam cushion pad formation assembly that includes a conveyance assembly having at least one moving conveyor component presenting a pad shape formation surface, which surface is convoluted and arranged to shape sealed enclosures of a pad chain received by the conveyance assembly. A separation device is provided to separate shaped pads of the pad chain received by said conveyor device. The shaped pads include convoluted surface that are formed by way of gripping projection and recesses combinations in the moving conveyor component. Embodiments include sensing for non separated pads from a downstream end of the bag chain, pad chain separation enhancement devices, and various control system including the requirement of confirmation of separation before feeding a new pad enclosure as in one containing liquid polyurethane precursor chemicals. An embodiment includes a pad chain path disruption sensor and a form feed control which implements the formation of pad enclosures free of filler material in a bridging region between the outlet end of the enclosure formation means and the conveyance assembly.

Pad formation method, assembly and pad produced thereby

A system and method for providing operational control and/or remote monitoring of a manufacturing device as in a foam dispenser device such as a foam-in-bag dispensing device. In architecture, the remote monitoring system includes a server device containing a remote monitoring system. The remote monitoring system further includes a transceiver to receive an indication of a help condition, connect to the manufacturing device; and receive data from the manufacturing device. The present invention can also be viewed as a method for providing remote monitoring of a manufacturing device. The method operates by (1) receiving an indication of a help condition; (2) connecting to the manufacturing device; and (3) receiving data from the manufacturing device. The operational control system is designed to control operation of one or more sub-systems of the manufacturing device as in a foam dispenser's chemical supply (proper temperature and pressure) and solvent supply as well as performance of a reciprocating valve device. With a foam-in-bag system, the control system provides for additional control over, for example, film feed and tensioning, bag edge and end seals as well as dispenser output into the bag. In a preferred embodiment, the operational control system and remote monitoring control interface with each other.

Operational control system and a system providing for remote monitoring of a manufacturing device

A mixing module for use in a dispenser system having a housing with a front end, a rear end and an interior opening between the front and rear end, and the housing having a cap covering at the front end. A rod and a mixing chamber are received within the interior opening in the housing and have a rod reception passageway which receives the rod. The mixing module has at least one chemical inlet opening into the rod reception passageway, and the rod is adjustably received within the rod reception passageway with a forward end of travel that places the rod at the front end of the housing. A solvent feed passageway extends in a rearward to forward direction entirely within a wall portion of the housing. There is also a cap covering the housing defining a solvent feed space (e.g., a double wall combination) at the front end with the solvent feed space extending radially inward for solvent feed to the rod upon rod positioning at the front end).

Dispensing system and method of manufacturing and using same with a dispenser tip management

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Tulsa, OK, United States of America

Todd Hanna