A confection mold conveying system and methods for manufacturing of confection products, the system including a first conveyor segment and a second conveyor segment. The first conveyor segment has a first pusher bar and a series of spaced apart first pusher fingers extending therefrom. The first pusher fingers are oriented to engage confection mold trays while the first pusher bar is translated in a first direction. The first pusher fingers are re-oriented to avoid engagement with the confection mold trays while the first pusher bar is translated in a second direction opposite the first direction. The second conveyor segment receives the confection mold trays from the first conveyor segment and can include a first rotatable shaft with a first helical channel to receive a first tab of one of the confection mold trays. Rotation of the rotatable shaft thereby continuously advances the respective confection mold tray in the first direction.

In an plant for producing foodstuff, in particular a chocolate article, in at least one mould (1) which can be tempered in at least one processing station (3, 8, 9) before and/or after the foodstuff is filled in, wherein the mould (1) being taken over in or at the processing station (3, 8, 9) by a robot (4) and being deposited for tempering, individual, separate trays (5) for the moulds (1) are provided in the processing station (3, 8, 9).

A confection mold conveying system and methods for manufacturing of confection products, the system including a first conveyor segment and a second conveyor segment. The first conveyor segment has a first pusher bar and a series of spaced apart first pusher fingers extending therefrom. The first pusher fingers are oriented to engage confection mold trays while the first pusher bar is translated in a first direction. The first pusher fingers are re-oriented to avoid engagement with the confection mold trays while the first pusher bar is translated in a second direction opposite the first direction. The second conveyor segment receives the confection mold trays from the first conveyor segment and can include a first rotatable shaft with a first helical channel to receive a first tab of one of the confection mold trays. Rotation of the rotatable shaft thereby continuously advances the respective confection mold tray in the first direction.

A process for dispensing fluid foodstuff material into a shaping cavity of a mould is provided. The process includes advancing a plurality of moulds on a conveying line, along an advancement direction, each comprising at least one shaping cavity. The process includes dispensing a given quantity of the material through one or more of the nozzles, into the at least one shaping cavity of a mould. The dispensing step is executed while the mould continues to advance below the nozzle formation, along the advancement direction. The at least one shaping cavity of the mould has a depth that varies along the advancement direction. The dispensing step comprises varying the quantity of material dispensed into the shaping cavity as a function of the position of the mould along the advancement direction in such a way that the dispensed quantity is a function of the depth variation within the shaping cavity.

Methods of confection mold conveying comprise translating, in a first direction, a first pusher bar having spaced apart first pusher fingers oriented to engage confection mold trays while the first pusher bar is translated in the first direction; translating, in a second direction opposite the first direction, the first pusher bar, wherein the first pusher fingers are oriented to avoid engagement with the confection mold trays while the first pusher bar is translated in the second direction, and wherein the first pusher bar is translated within a first conveyor segment of a confection mold conveyor; and rotating a first rotatable shaft with a first helical channel formed therein that is sized and configured to move the confection mold trays, wherein the first rotatable shaft is included within a second conveyor segment of the confection mold conveyor and is positioned to receive the confection mold trays from the first conveyor segment.

In an plant for producing foodstuff, in particular a chocolate article, in at least one mould (1) which can be tempered in at least one processing station (3, 8, 9) before and/or after the foodstuff is filled in, wherein the mould (1) being taken over in or at the processing station (3, 8, 9) by a robot (4) and being deposited for tempering, individual, separate trays (5) for the moulds (1) are provided in the processing station (3, 8, 9).

The present invention relates to the field of confectionery production, particularly to the use of a modular, flexible process and the use thereof in combination with the confectionery cooling step of the present invention.

A system for dispensing fluid foodstuff material into a shaping cavity of a mould is described, of the type comprising the steps of: advancing a plurality of moulds (M1, M2) on a conveying line (2), along an advancement direction (X), each comprising at least one shaping cavity; providing a dispensing machine (4) along said conveying line (2) provided with a formation of nozzles (6; 61, 62, 63) comprising at least one line of nozzles arranged along a direction (K) transversal to said advancement direction (X).

The process is characterized in that it delivers the material during advancement of the moulds, and in that it adjusts the quantity of material dispensed as a function of the variation in depth in the individual shaping cavity along the advancement direction (X).

A robotized line for the production of chocolate products, including a casting chamber, a refrigerated chamber and a demoulding chamber, wherein each of the chambers is equipped with an anthropomorphic robot able to move the moulds during several steps of the production process.

A system (1) for producing foods, in particular a chocolate system, comprising at least one treatment station and at least one industrial robot (2, 3), which comprises at least one effector (4) having at least one receiving device for at least one product carrier (14) and comprises at least one manipulator (13) for transferring the at least one product carrier (14). The industrial robot (2, 3) additionally comprises at least one control device, preferably at least one associated processing device, and the control device is or can be set in such a way that the product carrier (14), preferably at and/or opposite a treatment station and/or between two treatment stations, can be shaken, spun, turned, rotated, slid, raised, lowered, blown at, suctioned out, cleaned, stacked and/or unstacked, cleared out by knocking, emptied, filled, temperature-controlled, and/or, in particular under sensor control, moved along a predetermined path.