DE102016209967B3 - Method for operating a work for a sheet processing machine - Google Patents

Abstract

Method for operating a work (05, 06) for a sheet processing machine (01), comprising a main drive arrangement (39) for driving a plurality of rotatable rollers (28, 37, 38) and / or cylinders (09) of the work (05, 06) and at least one further drive (41; 61) driven by an inking roller drive (41) for driving a first rotatable inking roller (26) of the movement (05, 06), by a Farbheberkurvescheibenantrieb (61) for driving a Farbheberkurvenscheibe (42) and / or by an eccentric bearing drive for driving a cam plate (54) of an eccentric bearing of a first inking roller (26) immediately downstream roller (37) is formed, wherein the further drive (41; 61) by the Farbheberkurvenscheibenantrieb (61) for driving the Farbheberkurvenscheibe ( 42) is formed; wherein a color lifter (27) is adjustable by a rotation of the Farbheberkurvenscheibe (42); and wherein the method comprises a step of rotating the ink lift cam (42) through the color lifter cam drive (61) to a detent point of the color elevating cam (42) to inhibit misalignment of the ink lifter (27), the ink lifter (27) in the latching point engages, so that the Farbheberkurvenscheibe (42) in a by the Farbheberkurvenscheibenantrieb (61) non-driven state can not rotate by one of the ink lifter (27) on the Farbheberkurvenscheibe (42) acting force and thus the Farbheber (27) against a Movement towards the ink ductor (24) is locked.

Description

The invention relates to a method for operating a work for a sheet processing machine according to claim 1.

A sheet processing machine usually has a main drive for driving at least the sheet transport serving cylinders or rollers using a gear train on. In addition, individual drives are used for directly driving individual cylinders, so that these cylinders can be driven independently of the main drive. Thus, it is known to drive the cylinders of a printing unit, an inking unit and a dampening unit with one or more independent of the main drive individual drives.

A printing unit is a part of the sheet processing machine in which the printing of a printing material or a substrate between a forme cylinder and a transfer cylinder takes place. Printing ink is applied in an inking unit via a clocked ink lifter by a Farbduktor first on a first Verreibwalze, the so-called distributor roller and from this further on a plurality of successively arranged transfer rollers, the so-called complaint rollers passed. These transfer the ink to a lower inking roller. A dampening unit moistens the part of the forme cylinder that is not coated with ink to produce a uniform print result without blurring.

The ink lifter, called a lifter for short, is a roller in the inking unit of the printing unit, which forwards the ink from a ink ductor to a first inking roller, in short called the ink driver. The inkwheel alternately contacts the ink fountain roller and the ink fountain roller, which is realized by a cam mechanism with a driven lift cam. The rotary drive of the color lifter takes place via friction, the alternating contact with the ink fountain roller and the ink fountain roller. The shift of the ink lifter can be blocked by a pawl to ensure that no more ink is transferred from the ink fountain roller to the inking unit. The pawl is pushed, for example, by a pneumatic cylinder under a drive lever of the dye lifter, whereby the movement of the dye lifter is limited and this can no longer contact the ink fountain roller. As a result of the blockage, the ink lifter abuts the first inking roller. The alternating locking and unlocking of the ink lifter leads to a high mechanical load on the pawl and the drive lever, which entails a high failure rate.

The DE 40 12 292 A1 shows a lift drive, as it is used in the inking unit of an offset printing press. On a rotating drive curve a Maltese cross is coaxially mounted frontally, which is only once indexed during a full revolution of a drive shaft.

The DE 42 31 260 C2 discloses a central rotary drive for simultaneously driving a plurality of ink-transporting rollers, in particular a plurality of inking rollers. The inking rollers stand with their each recorded on a pin gear with a driven side of a drive wheel central drive in drive connection. The color lifter is frictionally rotated by alternating contact with a color ductor and one of the inking rollers. The disadvantage is that transmit different peripheral speeds of the ink fountain roller and the ink roller during the printing on the color lifter. In this case, the inking roller has a higher peripheral speed than the ink fountain roller, which during the printing leads to the fact that the ink lifter is decelerated at the ductor and accelerated at the inking roller. The acceleration of the color lifter takes place in a very short time. This results in a short high drive power of the main drive. This causes a moment peak with a detrimental effect on print quality.

The occurrence of the torque peak by accelerating contacting the ink lifter with the ink fountain roller is also referred to as a lifter.

The DE 10 2007 049 916 A1 discloses a drive for a lift roller with a cam driven by a motor.

The DE 1 082 602 A discloses shut down a color lifter by means of a cam.

From the DE 10 2004 057 142 A1 and the DE 33 42 459 A1 are devices for stopping the lift movement known.

The invention has for its object to provide a method for operating a work of a sheet processing machine, whereby a simple blocking of a color lifter is possible.

The object is achieved by the features of claim 1.

The plant is intended for a sheet-fed machine so that it forms part of the sheet-processing machine. The work is preferably formed by a printing unit of the sheet processing machine. The sheet processing machine is preferably a printing press, in particular for offset printing. The factory includes several rotatable rollers and / or rotatable cylinders. At least several of the rotatable rollers and / or cylinders are drivable. At least several of the rotatable rollers and / or cylinders contact each other in pairs. The drive of several of the rotatable rollers and / or cylinders can be realized via a main drive arrangement. The main drive arrangement preferably comprises a main drive, which is formed by at least one motor. The at least one engine of the main drive assembly preferably comprises an electric motor, a pneumatic motor and / or a hydraulic motor. The main drive assembly preferably further includes torque transmitting connections for transmitting torque from the main drive to the rotatable rollers and / or cylinders.

The factory includes at least one further drive in addition to the main drive arrangement. The further drive or the further drives are formed by a Farbreiberwalzenantrieb to drive a first rotatable inking roller of the factory and / or by a Farbheberkurvenscheibenantrieb to drive a Farbheberkurvenscheibe and / or by an eccentric bearing drive for driving a cam plate of an eccentric bearing of the first inking roller directly downstream roller , The plant can thus comprise one, two or three of said further drives. The further drive or the further drives are independent of the main drive arrangement.

The ink fountain roller drive is used for direct drive of the first rotatable ink roller and is independent of the main drive assembly. The first inking roller, which may also be referred to as a first ink driver for short, is formed by a rotatable roller and forms a component of the work. The factory may include additional inking rollers in addition to the first inking roller, but it may also be the sole inking roller of the factory.

A particular advantage of the ink fountain roller drive is that the first ink roller can be operated with an adapted peripheral speed, so that the lifter stroke is minimized.

The further drive or the further drives preferably each comprise at least one motor and optionally gear elements. The at least one motor of the further drive preferably comprises an electric motor, a pneumatic motor and / or a hydraulic motor. The further drive or the further drives particularly preferably each comprise exactly one motor.

A first preferred embodiment of the plant comprises exactly one of said further drives, which is designed in addition to the drive of the first rotatable inking roller, for driving the Farbheberkurvenscheibe and / or for driving the roller cam of the eccentric bearing. Thus, the exactly one further drive is preferably designed for at least two of the mentioned drive functions. It is particularly preferred that exactly one further drive be the ink roller drive, which is additionally designed to drive at least the roller cam of the eccentric bearing.

A second preferred embodiment of the plant comprises exactly two of said further drives, one of the two further drives being designed to drive the first rotatable inking roller, to drive the Farbheberkurvenscheibe and / or for driving the roller cam of the eccentric bearing. The two drives are preferably formed by the ink fountain roller drive and the eccentric bearing drive.

A third preferred embodiment of the plant comprises exactly three of said further drives.

In the described embodiments with several of the other drives, the plant preferably further comprises an electronic control for controlling the at least two further drives. The electronic control ensures that the first inking roller, the ink lifting cam and the roller cam rotate at an adjusted speed and phase according to the functional sequence in the factory. If the plant includes only one of the further drives, the adjusted rotational speed and phase are ensured by torque transmitting connections between the further drive and the first inking roller, the Farbheberkurvenscheibe and the Walzenkurvenscheibe.

The further drive or the further drives are preferably designed in each case as a single drive. The drivable by the ink fountain roller drive first inking roller is thus exclusively driven by the Farbreiberwalzenantrieb or drivable by the Farbheberkurvenscheibenantrieb Farbheberkurvenscheibe is thus driven exclusively by the Farbheberkurvenscheibenantrieb or driven by the Exzenterlagerantrieb roller cam is thus exclusively driven by the Exzenterlagerantrieb.

The drivable by the ink fountain roller drive first ink fountain roller is preferably not directly through the main drive assembly driven, but at most only indirectly by friction on the directly driven by the main drive assembly rollers. The Farbheberkurvenscheibenantrieb drivable Farbheberkurvenscheibe is preferably not directly driven by the main drive assembly, but at best only indirectly by friction on the directly driven by the main drive assembly rollers. The driven by the eccentric bearing roller cam plate is preferably not directly driven by the main drive assembly, but at best only indirectly by friction on the directly driven by the main drive assembly rollers.

The ink fountain roller drive is preferably arranged coaxially with the first inking roller to ensure the immediate drive of the first inking roller by the ink fountain roller drive. The color lifter cam drive is preferably coaxial with the color lifter cam to ensure direct drive of the color lifter cam through the color lifter cam drive. The eccentric bearing drive is preferably arranged coaxially to the roll cam to ensure the direct drive of the roll cam by the eccentric bearing drive.

The work preferably includes a color lifter. The ink lifter is designed for contacting the ink fountain roller drive drivable by the first inking roller to allow immediate color transport from the ink lifter to the drivable by the ink fountain roller drive first inking roller.

Preferred embodiments of the work include further of the inking rollers, which are not directly or indirectly driven directly by the further drive, but in particular by the main drive assembly. Preferably, only that of the inking rollers by the further drive, in particular by the ink fountain roller drive, can be driven directly, which is designed for contacting the ink lifter and is arranged immediately following the color transfer lifter. This inking roller is the first inking roller.

Alternatively preferred embodiments of the work include further of the inking rollers, which are also driven by the further drive, in particular by the ink fountain roller drive. Apart from that, further of the rollers or cylinders of the movement can also be driven by the further drive or by the ink-roller drive.

In preferred embodiments of the factory, the drive of the Farbheberkurvenscheibe, for pivoting or clocking the color lifter. The Farbheberkurvenscheibe converts the rotational kinematics of the further drive in a translationally non-uniform clocked movement of the ink lifter. The color lifter is adjustable by a rotation of the Farbheberkurvenscheibe. In particular, the inking device is displaceable between two positions, namely between a position in which it contacts a ink ductor and a position in which it contacts the first inking roller. The ink lift cam is formed in a modified embodiment as a segment, so that the Farbheberkurvenscheibe must be rotated by an angle of less than 360 ° in order to adjust the ink lifter between its two positions. In this case, the Farbheberkurvescheibenantrieb is preferably formed by a pneumatic linear motor or by a hydraulic linear motor, with which the segment-like Farbheberkurvenscheibe is rotatable about its pivot point by a rotation angle of less than 360 ° back and forth, which also as a swinging back and forth of the segment-like Farbheberkurvenscheibe can be understood.

The driving of the Farbheberkurvenscheibe by the further drive leads to a printing improvement over the use of the main drive for driving the Farbheberkurvenscheibe. A tact and / or a time of use of the color lifter can be easily varied and adapted; for example, individually in the multiple works of the sheet processing machine. Also, investment times on the ink fountain roller and / or on the first inking roller can be varied independently of the main drive arrangement.

In the first preferred embodiment described above and in the second preferred embodiment described above, in which one of the further drives is complementary to the drive of the first rotatable inking roller, driving the Farbheberkurvenscheibe and / or driving the roller cam of the eccentric bearing, the plant preferably comprises a torque-transmitting connection for transmitting a torque from the further drive to the first rotatable inking roller, to the Farbheberkurvenscheibe or on the Walzenkurvenscheibe. This torque-transmitting connection is preferably formed by a belt transmission, which is preferably designed as a toothed belt transmission. A belt of the belt drive or a toothed belt of the toothed belt drive spans the axis of the inking roller, the axis of the Farbheberkurvenscheibe and the axis of the Walzenkurvenscheibe or at least two of said axes.

In alternative preferred embodiments, in addition to the main drive assembly and the ink fountain roller drive the Farbheberkurvenscheibenantrieb continues to drive the Farbheberkurvenscheibe available, which can be used as an alternative to Farbreiberwalzenantrieb.

In modified embodiments, the further drive, for example, the Farbheberkurvenscheibenantrieb for driving further of the rotatable rollers and / or cylinders of the factory is formed.

The roller immediately following the first inking roller is designed to contact the first inking roller. The roller immediately following the first inking roller is preferably formed by a loading roller or by a transfer roller.

The first inking roller immediately downstream roller is preferably mounted in the eccentric bearing, by which a rotational axis of the first inking roller immediately downstream roller between a set position and a parking position is displaceable. In the parking position, a functional gap is formed between the first inking roller and the roller immediately following the first inking roller, whereas in the setting position the first inking roller and the roller immediately following the first inking roller are arranged in contact. The functional gap is preferably less than 0.5 mm; more preferably less than 0.1 mm. The function gap is greater than zero because it is a gap. The functional gap is preferably greater than 0.01 mm. The parking position is preferably selected in the time phases when the ink lifter contacts the first inking roller, so that a transfer of the lifter stroke is largely prevented. The alternating deflection into the setting position and in the parking position preferably takes place synchronously with the clock of the color lifter.

An alternative preferred embodiment of the work comprises a linear actuator, by which the eccentric bearing of the first inking roller immediately downstream roller between the setting position and the parking position is deflected. However, the eccentric bearing of the roller immediately following the first inking roller is particularly preferably deflectable by the roller cam between the setting position and the parking position, wherein the roller cam can be driven by one of the further drives. For this purpose, the plant preferably comprises a torque-transmitting connection for transmitting a torque from the further drive to the roller cam. This torque-transmitting connection is preferably formed by the belt transmission or toothed belt transmission described above. The belt of the belt drive or the toothed belt of the toothed belt drive thus spans the axis of the inking roller, the axis of the Farbheberkurvenscheibe and the axis of the roller cam. In an alternative preferred embodiment, the roller cam is drivable by the Farbheberkurvenscheibenantrieb so that the Farbheberkurvenscheibenantrieb the eccentric bearing of the first inking roller directly downstream roller between the set position and the parking position can deflect.

The first inking roller and the first inking roller immediately downstream roller are preferably driven at a same peripheral speed, which can be ensured by the presence of the main drive assembly and the further drive safely.

In an alternative preferred embodiment, the first inking roller is mounted in an eccentric bearing, by which a rotational axis of the first inking roller between the above-described setting position and the above-described parking position is displaceable.

In a further preferred embodiment, the ink fountain roller drive is designed so that further of the rotatable rollers and / or cylinders of the factory are alternatively drivable by the ink fountain roller drive.

The method for operating the plant is provided for those embodiments of the work in which the further drive or one of the further drives is formed by the Farbheberkurvenscheibenantrieb to drive the Farbheberkurvenscheibe. The method is used in particular for blocking the ink lifter, whereby the ink lifter is spaced from the ink ductor. The distance between the ink lifter and the ink duct ensures that no ink is transferred from the ink ductor to the inking unit during blocking. In particular, no ink can be transferred from the ink fountain roller to the ink lifter during the blocking of the ink lifter. The method includes a step of rotating the color-elevating cam through the color lifter cam drive to a detent point of the color-elevating cam to inhibit adjustment of the ink lifter. The color lifter snaps into the latching point, so that in a state not driven by the color lifter cam drive, the color lifter cam can not be rotated by a force acting on the color lifter cam by the ink lifter and thus the ink lifter is prevented from moving towards the ink ductor. The locked ink lifter is preferably at the first Ink roller on. The Farbheberkurvenscheibe is preferably rotated synchronously with the clock of the work to the detent point.

A particular advantage of the method is that it is possible to dispense with a pawl for locking the dye lifter, wherein additionally a blocking of the ink lifter can be done by the pawl. The method allows a more reliable blocking, since the pawl and its drive can be omitted as additional components.

The detent point is preferably an upper detent point. The Farbheberkurvenscheibe preferably further comprises a lower detent point and possibly further detent points.

In a preferred embodiment, the color elevating cam has a center angle of 360 ° such that it is preferably rotated by the color lifter cam drive exclusively in a single direction of rotation to reciprocate the ink lifter between its two positions.

In a further preferred embodiment, the Farbheberkurvenscheibe has a center angle of less than 360 °, so that it is formed segment-like. The segmented color lifter cam is preferably rotated back and forth by the color lifter cam drive at a rotation angle less than 360 degrees to reciprocate the ink lifter between its two positions. Here, the Farbheberkurvenscheibenantrieb is preferably formed by a pneumatic linear motor or by a hydraulic linear motor.

Embodiments of the invention are illustrated in the drawings and will be described in more detail below.

Show it:

1 a schematic representation of a sheet processing machine;

2 a schematic representation of a top module of an in 1 shown printing unit;

3 a first preferred embodiment of a printing unit;

4 a second preferred embodiment of the printing unit;

5 a third preferred embodiment of the printing unit;

6 a fourth preferred embodiment of the printing unit.

1 shows a sheet processing machine 01 , The sheet processing machine (not shown) for processing an arcuate substrate 01 includes one example, as a sheet feeder 02 designated Substratzufuhreinrichtung 02 , for example, as a sheetfed 03 designated investment facility 03 and one example, as a sheet delivery 04 designated substrate delivery device 04 , Between the substrate supply device 02 and the substrate delivery device 04 are arranged one or more, also known as works processing stages, which are designed for example as a printing unit, coating unit, drying, calendering or film transfer plant or in any other suitable manner. In the case of the formation of the sheet processing machine 01 as a printing press, in particular as a sheet-fed press, is at least one of the works 05 . 06 through a printing unit 05 . 06 , in particular formed by an offset printing unit, preferably one or more works 07 , especially Lackwerke 07 are subordinate. In the case of several of the printing units 05 . 06 can also be the arrangement of one or more of the Lackwerke 07 between the printing units 05 . 06 be provided.

Unless explicitly differentiated, the term sheet-shaped substrate (not shown), in particular a printing substrate, especially the sheet, should be understood to mean in principle any substrate present in a planar manner and in sections, that is to say also board-like or possibly plate-shaped substrates, ie also panels or panels .Plates, includes. The arcuate substrate or the sheet thus defined is preferably made of paper or cardboard, d. H. formed as a paper or cardboard sheet, but may in principle be formed by sheets, sheets or possibly plates made of plastic, cardboard, glass or metal.

2 shows a superstructure module 08 of in 1 shown printing unit 05 in a detailed view. The printing unit 05 includes z. B. in the area of as printing unit superstructure 08 trained Oberbaumoduls 08 a cylinder 09 , in particular as a forme cylinder 09 , z. B. designed as a plate cylinder printing unit cylinder, and in one embodiment for the offset printing process also a particular as a transfer cylinder 10 , z. B. designed as a rubber cylinder printing cylinder. Furthermore, the printing unit includes 05 z. B. in the field of a so-called printing unit base 12 trained sub-module 12 one as a printing cylinder 13 or a counter-pressure cylinder 13 trained printing cylinder and one as a transfer drum 14 designated transfer drum 14 ,

In the 1 and 2 shown printing units 05 . 06 are modular, such that the printing unit superstructure 08 through the upper building module 08 and the printing unit base 12 through the sub-module 12 given is. In the modular design, the upper module comprises 08 Here, for example, the form cylinder 09 and in one embodiment for the offset printing process, the transfer cylinder 10 , The sub-module 12 in particular, the impression cylinder 13 and Z. B. the transfer drum 14 on. As "modular" or module can be understood in this context, a structural unit, which is pre-assembled with their main components or at least their connection elements in a frame as a whole in the machine and, if necessary, to dismantle again, the frame as one of the rest Machine frame releasable frame is formed.

In the case of the modular design, the horizontal pitch runs between the upper boom module 08 and the sub-module 12 preferably between the transfer cylinder 10 and the impression cylinder 13 , The vertical dividing line between the substructure modules 12 or between the printing units 05 . 06 is seen in the sheet transport direction mainly between the transfer drum 14 of the printing unit 05 and the impression cylinder 13 of the following printing unit 06 (shown in 1 ) placed.

The above transfer cylinder 10 can at least one fastening device with a fastening means 15 for holding and / or tensioning a blanket. For example, a clamping and / or clamping channel 17 in which the fastener 15 in the form of clamping and / or clamping organs 15 in particular for mounting a blanket (not shown) are arranged, be provided.

The transfer cylinder 10 is regarding the direction of the effective color flow of z. B. designed as a plate cylinder form cylinder 09 upstream, the z. B. also at least one fastening device with a fastening means 18 for holding and / or clamping a printing plate, in particular a printing plate. The form cylinder 09 can a second clamping and / or clamping channel 19 in which the fastening means 18 z. B. in the form of at least one clamping and / or clamping member 18 for mounting a pressure plate (not shown) on the lateral surface of the forme cylinder 09 located.

The printing unit 05 . 06 can in the area of the printing unit superstructure 08 or upper module 08 an automatic or semi-automatic plate changer 20 be assigned.

For coloring the z. B. formed as a printing plate printing plate is at least one inking unit 22 intended. The inking unit 22 may be designed as a short inking unit, as a lifting inking unit, as a film inking unit or in any other suitable manner. In the case of the preferred embodiment as a lifting inking unit, the inking unit comprises 22 at least one color supply 23 , which may be formed, for example, as a squeegee or ink fountain, at least one through the ink supply 23 to be colored, for example as a ductor roller 24 trained ink pickup roller 24 , in particular Farbduktor 24 , one or more other inking rollers 25 and preferably one between the ink receiving roller 24 and a first inking roller 26 , also called ink roller 26 is referred to, oscillating lifting roller 27 , z. B. a so-called. Color lifter 27 , The inking rollers 25 differ for example in positively driven rollers 28 , in particular Farbreiberwalzen 28 (hatched drawn) and in inking rollers 29 that z. B. only by friction of the forcibly driven inking rollers 28 are driven. For applying the of the by the inking rollers 25 prepared ink, such as ink on the printing plate (not shown) are preferably four inking rollers in the embodiment 30 intended.

In the direction of rotation in operation 32 of the forme cylinder 09 is the inking rollers 30 optionally a dampening roller 33 upstream. This is a dampening unit 34 assigned, which is intended for applying dampening liquid to the surface of the printing plate. Between one in the direction of rotation 32 of the forme cylinder 09 first of the inking rollers 30 and the dampening roller 33 may be a preferably switchable bridge roller 35 be provided. This functionally establishes a connection between the dampening unit 34 and inking unit 22 possible. In the case of a switchable design, this allows several modes of operation for optimizing the wet-liquid supply.

3 shows a schematic representation of a first preferred embodiment of the executed printing unit 05 , The printing unit 05 includes the ductor roller 24 , the color supply 23 and the first inking roller 26 which acts as a first inking roller 26 is formed, and the other ink roller 28 , the color lifter 27 and a first roller 37 , in particular a first complaint roller 37 immediately adjacent to the first inking roller 26 is subordinate, as well as another roller 38 , in particular, complaint rolls 38 , To drive the forme cylinder 09 (shown in 2 and 5 ), the transfer cylinder 10 (shown in 2 ), the other ink roller 28 , the first complaint roller 37 and the further complaint roll 38 serves a main drive arrangement 39 (shown in 5 ). The printing unit 05 further includes a drive 41 , especially one Ink distributor roller drive 41 for direct drive of the first inking roller 26 , The ink roller drive 41 also serves for the indirect drive of a Farbheberkurvenscheibe 42 through which the color lifter 27 via a first roller lever 43 is deflectable. The indirect drive of the Farbheberkurvenscheibe 42 via a toothed belt transmission 46 ,

An axis 48 the first complaint roll 37 is through a linear actuator 49 between a positioning position and a parking position perpendicular to the axis 48 displaceable. The parking position is approached when the color lifter 27 the first inking roller 26 contacted. The setting position is approached when the color lifter 27 the ductor roller 24 contacted. It is shown the parking position, in which between the first ink roller 26 and the first complaint roll 37 a functional gap 51 of about 0.05 mm is present.

4 shows a schematic representation of a second preferred embodiment of the printing unit 05 , This embodiment is initially similar to the one in FIG 3 shown embodiment. Notwithstanding the in 3 In the embodiment shown, the embodiment shown here does not have a linear actuator. Instead, the axis is 48 the first complaint roll 37 via a second roller lever 53 and a complaint roll cam 54 between the positioning position and the parking position perpendicular to the axis 48 displaceable. The complaint roll cam 54 is also from the ink roller drive 41 over the toothed belt transmission 46 drivable. The representation of the toothed belt transmission 46 makes it clear that instead of the ink roller drive 41 also a single drive as a further drive (not shown) in addition to the main drive assembly 39 (shown in 5 ) on the color lifting cam 42 and / or on the complaint roll cam 54 can be arranged.

5 shows a schematic representation of a third preferred embodiment of the printing unit 05 , This embodiment is initially similar to the one in FIG 3 shown embodiment. Notwithstanding the in 3 In the embodiment shown, the embodiment shown here has a gear transmission 56 instead of a belt drive 46 on, over which the Farbheberkurvenscheibe 42 through the ink roller drive 41 is drivable. In addition, in this illustration, the main drive assembly 39 shown a main engine 57 and a main wheel train 58 includes. Furthermore, in this illustration, a Farbduktorantrieb 59 to drive the ductor roller 24 shown.

6 shows a schematic representation of a fourth preferred embodiment of the printing unit 05 , This embodiment is initially similar to the one in FIG 5 shown embodiment. Notwithstanding the in 5 In the embodiment shown, the embodiment shown here has a drive 61 , in particular a Farbheberkurvescheibenantrieb 61 to drive the Farbheberkurvenscheibe 42 on. In this illustration, the main drive assembly 39 (shown in 5 ) Not shown.

LIST OF REFERENCE NUMBERS

01

 Sheet processing machine

02

 Sheet feeder, substrate feeder

03

 Sheet plant, investment facility

04

 Sheet delivery, substrate delivery device

05

 Factory, printing unit

06

 Factory, printing unit

07

 Plant, coating plant

08

 Printing unit superstructure, superstructure module

09

 Cylinder, forme cylinder

10

 transfer cylinder

11

12

 Printing unit substructure, sub-module

13

 Impression cylinder, impression cylinder

14

 Transfer drum, transfer drum

15

 Fastening means, clamping and / or clamping member

16

17

 Clamping and / or clamping channel

18

 Fastening means, clamping and / or clamping member

19

 Clamping and / or clamping channel

20

 Plate changing device

21

22

 inking

23

 color stock

24

 Paint pickup roller, ductor roller, ink ductor

25

 Inking roller

26

 Ink fountain roller, ink roller, first

27

 Lifting roller, color lifter

28

 Roller, ink roller, forcibly driven

29

 Inking roller, driven by friction

30

 Inking roller

31

32

Direction of rotation ( 09 )

33

 Moisture application roller

34

 dampening

35

 bridge roller

36

37

 Roller, complaint roller, first

38

 Roller, complaint roller, others

39

 Main drive arrangement

40

41

 Drive, ink roller drive

42

 Ink lifter cam

43

 Roller lever, first

44

45

46

 toothed belt drive

47

48

 axis

49

 linear actuator

50

51

 function split

52

53

 Roller lever, second

54

 Beschwerwalzenkurvenscheibe

55

56

 gear transmission

57

 main engine

58

 Haupträderzug

59

 Farbduktorantrieb

60

61

 Drive, color lifter cam drive

Claims (9)

Method for operating a work ( 05 . 06 ) for a sheet processing machine ( 01 ) comprising a main drive assembly ( 39 ) for driving a plurality of rotatable rollers ( 28 . 37 . 38 ) and / or cylinders ( 09 ) of the work ( 05 . 06 ) and at least one further drive ( 41 ; 61 ) driven by an ink fountain roller drive ( 41 ) for driving a first rotatable inking roller ( 26 ) of the work ( 05 . 06 ), by a Farbheberkurvescheibenantrieb ( 61 ) for driving a Farbheberkurvenscheibe ( 42 ) and / or by an eccentric bearing drive for driving a roll cam ( 54 ) of an eccentric bearing of one of the first inking roller ( 26 ) immediately downstream roller ( 37 ) is formed, wherein at which the further drive ( 41 ; 61 ) by the Farbheberkurvenscheibenantrieb ( 61 ) for driving the Farbheberkurvenscheibe ( 42 ) is formed; wherein by a rotation of the Farbheberkurvenscheibe ( 42 ) a color lifter ( 27 ) is adjustable; and wherein the method comprises a step in which the color shift cam ( 42 ) by the Farbheberkurvenscheibenantrieb ( 61 ) to a detent point of the Farbheberkurvenscheibe ( 42 ) is rotated to an adjustment of the color lifter ( 27 ), whereby the color lifter ( 27 ) into the latching point, so that the Farbheberkurvenscheibe ( 42 ) in one by the Farbheberkurvenscheibenantrieb ( 61 ) non-driven state not by one from the color lifter ( 27 ) on the Farbheberkurvenscheibe ( 42 ) can turn acting force and thus the color lifter ( 27 ) against movement towards the ink ductor ( 24 ) Is blocked. A method according to claim 1, characterized in that it exactly one of the further drives ( 41 ; 61 ) provided by the ink fountain roller drive ( 41 ), the Farbheberkurvenscheibenantrieb ( 61 ) or the eccentric bearing drive is formed and in addition to the drive ( 41 ) of the first rotatable inking roller ( 26 ), to drive ( 61 ) of the Farbheberkurvenscheibe ( 42 ) and / or for driving the roller cam ( 54 ) of the eccentric bearing is formed. A method according to claim 1, characterized in that it exactly two of the further drives ( 41 ; 61 ), wherein one of the two further drives ( 41 ; 61 ) in addition to the drive ( 41 ) of the first rotatable inking roller ( 26 ), for driving the Farbheberkurvenscheibe ( 42 ) and / or to the drive ( 61 ) of the roll cam ( 54 ) of the eccentric bearing is formed. A method according to claim 1, characterized in that it exactly three of the other drives ( 41 ; 61 ). A method according to claim 3 or 4, characterized in that it further comprises an electronic control for controlling the at least two further drives ( 41 ; 61 ). Method according to one of claims 1 to 5, characterized in that it is a color lifter ( 27 ), wherein the first inking roller ( 26 ) for contacting the color lifter ( 27 ), wherein the at least one further drive ( 41 ; 61 ) continue to pivot the ink lifter ( 27 ) is formed, for which the Farbheberkurvenscheibe ( 42 ) by the at least one further drive ( 41 ; 61 ) is drivable. Method according to one of claims 1 to 6, characterized in that the first inking roller ( 26 ) immediately downstream roller ( 37 ) for contacting the first inking roller ( 26 ), wherein the first inking roller ( 26 ) immediately downstream roller ( 37 ) is mounted in the eccentric bearing, by which an axis ( 48 ) of the first inking roller ( 26 ) immediately downstream roller ( 37 ) is displaceable between a setting position and a parking position, wherein in the parking position between the first inking roller ( 26 ) and that of the first inking roller ( 26 ) immediately downstream roller ( 37 ) a function gap ( 51 ) is formed, and wherein in the setting position the first inking roller ( 26 ) and the first ink roller ( 26 ) immediately downstream roller ( 37 ) are arranged in contact. Method according to claim 7, characterized in that it comprises a linear actuator ( 49 ), by which the eccentric bearing of the first inking roller ( 26 ) immediately downstream roller ( 37 ) is deflectable between the setting position and the parking position. A method according to claim 7, characterized in that the eccentric bearing of the first inking roller ( 26 ) immediately downstream roller ( 37 ) through the complaint roll cam ( 54 ) is deflectable between the setting position and the parking position, wherein the Complaint roller cam ( 54 ) by the further drive ( 41 ; 61 ) is drivable.

Images