Abstract: A conveying device (100) for the clock-integration of transport units (1, 1.1-1.4), includes a plurality of transport units, an indexing conveyor (2) for the clocked conveyance of the transport units, the indexing conveyor having a plurality of carriers (21, 21.1), which are respectively detachably connectable to a transport unit, at least one conveyor section (3), and a diverter (4), via which the conveyor section is connected at a clock-integration point (E) to the indexing conveyor and which is configured to clock-integrate the transport units at the clock-integration point into the indexing conveyor.

Abstract: A method for operating a postpress processing installation (1) for producing and processing product units, in particular completed final printed products (D) such as periodicals and newspapers, which are preferably compiled from a jacket product (A) and a plurality of part products and/or inserts (a, b, c, d), and a corresponding postpress processing installation (1). The final printed products (D) are produced according to a predetermined production plan in a manner adapted to the route along which they travel and are processed by means of at least one stacking device (70, 70.1) to form a sequence of standard packages (N) and part packages.

Abstract: A conveying device (100) for the clock-integration of transport units (1, 1.1-1.4), includes a plurality of transport units, an indexing conveyor (2) for the clocked conveyance of the transport units, the indexing conveyor having a plurality of carriers (21, 21.1), which are respectively detachably connectable to a transport unit, at least one conveyor section (3), and a diverter (4), via which the conveyor section is connected at a clock-integration point (E) to the indexing conveyor and which is configured to clock-integrate the transport units at the clock-integration point into the indexing conveyor.

Abstract: The invention relates to producing personalized printed end products which have in each case a printed product collection and at least one personalized printed product by creating (S1) end product specifications which define in each case at least one personalized printed end product, creating (S2) sales orders on the basis of end product specifications, wherein a sales order defines at least one sequence of printed product collections, initiating (S3) the process of creating and creating (S4) digital print orders on the basis of end product specifications and sales orders, wherein a digital print order defines at least one personalized printed product, producing (S5) printed product collections in accordance with the sales orders, producing (S6) personalized printed products in accordance with the digital print orders, and producing (S7) personalized printed end products from the produced printed product collections and personalized printed products.

Abstract: The invention relates to producing personalized printed end products which have in each case a printed product collection and at least one personalized printed product by creating (S1) end product specifications which define in each case at least one personalized printed end product, creating (S2) sales orders on the basis of end product specifications, wherein a sales order defines at least one sequence of printed product collections, initiating (S3) the process of creating and creating (S4) digital print orders on the basis of end product specifications and sales orders, wherein a digital print order defines at least one personalized printed product, producing (S5) printed product collections in accordance with the sales orders, producing (S6) personalized printed products in accordance with the digital print orders, and producing (S7) personalized printed end products from the produced printed product collections and personalized printed products.

Abstract: A method for operating a postpress processing installation (1) for producing and processing product units, in particular completed final printed products (D) such as periodicals and newspapers, which are preferably compiled from a jacket product (A) and a plurality of part products and/or inserts (a, b, c, d), and a corresponding postpress processing installation (1). The final printed products (D) are produced according to a predetermined production plan in a manner adapted to the route along which they travel and are processed by means of at least one stacking device (70, 70.1) to form a sequence of standard packages (N) and part packages.

Abstract: In a computer-controlled conveying system (3), virtual markers (K1-K10) are generated and are stored in association with a conveying element (31, 32, 33, 34). The virtual markers (K1-K10) each comprise a marker position which is based on the current position of the conveying element (31, 32, 33, 34) at the time of generation. A search is carried out for stored virtual markers (K1, K5, K6, K9) which have a relative position with respect to the associated conveying element (31, 32, 33, 34) that lies within a defined sector (T1, T2, T3) at the search time. Actuators of the conveying system (3) are driven depending on whether virtual markers (K1, K5, K6, K9) were found in the defined sector (T1, T2, T3) during searching. The virtual markers (K1-K10) may be applied to the conveying elements (31, 32, 33, 34) with dynamically changing distances, for example, and make it possible to drive actuators in a flexible manner independently of a fixedly defined clock rate.

Abstract: In a computer-controlled conveying system (3), virtual markers (K1-K10) are generated and are stored in association with a conveying element (31, 32, 33, 34). The virtual markers (K1-K10) each comprise a marker position which is based on the current position of the conveying element (31, 32, 33, 34) at the time of generation. A search is carried out for stored virtual markers (K1, K5, K6, K9) which have a relative position with respect to the associated conveying element (31, 32, 33, 34) that lies within a defined sector (T1, T2, T3) at the search time. Actuators of the conveying system (3) are driven depending on whether virtual markers (K1, K5, K6, K9) were found in the defined sector (T1, T2, T3) during searching. The virtual markers (K1-K10) may be applied to the conveying elements (31, 32, 33, 34) with dynamically changing distances, for example, and make it possible to drive actuators in a flexible manner independently of a fixedly defined clock rate.