EP4442416A2 - Method for the parallel production of shingled portions with different number of slices and slicing machine suitable therefor - Google Patents

Abstract

In order to avoid a situation where a slice (S) is cut off from each caliber (K) during the last cut when several portions (P) are produced in parallel, i.e. there is no blank cut during the last cut, as required for example by EP 2942165 B1, the basic idea is to provide a blank cut for the portions (P) produced simultaneously in at least one caliber (K) during the first cut, whereby in the subsequent procedure a distinction must be made as to whether separately controllable portioning belts (17a) are present per track (SP1, SP2) or not and whether the portion lengths (L) should be the same or not despite the different number of slices.

Description

I. Area of application

The invention relates to a method for the parallel production of shingled portions with different numbers of slices by means of a multi-lane slicing machine, in particular a so-called slicer, with which strands of a slightly compressible product such as sausage or cheese are cut into slices in the food industry.

II. Technical Background

Since these strands can be manufactured with a cross-section that retains its shape and dimension over their length, i.e. is essentially constant, they are called product calibers.

In this case, several product calibers arranged parallel to one another are cut open at the same time by using the same knife, which moves transversely to the longitudinal direction of the product calibers, to cut a slice from one of the product calibers arranged next to one another on the individual tracks in one pass.

The product calibers are pushed forward by a feeder of a feed unit towards the blade of the cutting unit, usually on a feeder directed diagonally downwards, and each through the product openings of a plate-shaped cutting frame, at the front end of which the protruding part of the product caliber is cut off as a disc by the knife immediately in front of the cutting frame.

During slicing, the product calibers are usually held at their rear end facing away from the cutting frame by a gripper, which is equipped with corresponding gripper claws for this purpose.

To reload the slicer with new product calibers, the feed conveyor can usually be folded down from the inclined slicing position into a horizontal loading position for easier loading.

This can be done while the rest of the product calibers are still being cut open - held by the grippers.

Once this has been done, the remaining piece that can no longer be cut is removed from the grippers, which move away from the cutting unit to their starting position at the maximum distance from it, so that when the newly loaded feed conveyor is subsequently swiveled up, the grippers are again behind the rear ends of the new product calibers and can grasp them.

The separated slices fall onto a portioning belt of a conveyor unit, by means of which a portion is formed between the impact of the successive slices on each track and the portions are then transported away for further processing.

If the machine is to have sufficient flexibility, both the feed unit, in particular its upper and lower driven product guide immediately in front of the cutting unit, as well as the portioning belts can be controlled individually for each track.

If portions with different numbers of slices are to be produced on the individual tracks, for example because these several portions produced next to each other are to be placed together in a common packaging, this is achieved by not cutting off a slice from each caliber with each rotation of the knife, but by making a so-called blank cut for one or more calibers by not pushing this caliber forwards beyond the knife plane before the knife hits it. The gripper holding this caliber at the rear end usually remains in its longitudinal position.

However, due to stretching or other influences, the front end of this caliber can protrude slightly into the blade plane, so that not a whole slice but a small piece of product is cut off from this caliber, which ends up on the portioning belt and is not visually appealing and should therefore be avoided, especially with the last slice of a portion, which is completely visible in the package.

It is from the EP 2942165 A1 It is already known that no blank cut should be made during the last cut for the several portions next to each other, i.e. that a slice should be cut off from each caliber during the last cut in order to avoid the formation of these snippets.

However, this entails other disadvantages, such as difficulties in achieving consistent portion lengths and their arrangement in a package.

III. Description of the invention a) Technical task

It is therefore the object of the invention to provide a method for simultaneously producing portions with unequal numbers of slices on a slicing machine, in particular, to provide a slicer that solves this problem, as well as a corresponding slicing machine.

b) Solution of the task

This object is achieved by the features of claims 1 and 11. Advantageous embodiments emerge from the subclaims.

• bei mindestens einer, meist mehreren, der hierfür notwendigen Umdrehungen des Messers von jedem der parallel und spur-individuell zugeführten Kaliber eine Scheibe abgetrennt wird
• Insbesondere die Portionier-Bänder, auf welche die abgetrennten Scheiben fallen, so gesteuert werden, dass die Länge der parallel nebeneinander erzeugten Portionen unabhängig von der Scheiben-Anzahl pro Portion immer etwa die gleiche ist.

With regard to the process for the parallel and essentially simultaneous production of shingled portions with different numbers of slices from slices that are produced from food calibers fed parallel to one another in a multi-lane slicing machine using the same, usually rotating knife, the procedure is often such that during the slicing of the portions to be produced in parallel

• at least one, usually several, of the necessary revolutions of the knife cuts off a slice from each of the parallel and track-individually fed calibers
• In particular, the portioning belts onto which the separated slices fall are controlled in such a way that the length of the portions produced parallel to one another is always approximately the same, regardless of the number of slices per portion.

Due to the different number of slices in the portions, one or more blank cuts are made for portions with a smaller number of slices, so that no slice is cut off when the knife of this caliber is passed through.

Often these blank cuts are placed in the middle of the portion, whereas for the first and last cuts for the portions a slice is cut off from each of the calibers.

This improves the appearance of the first and last slice of each portion by avoiding the formation of snippets, but severely limits the variability of the rest of the process.

According to the invention , it is proposed that during the first cut for this group of portions to be produced in parallel, no slice is to be cut off from at least one of the calibers that are to be sliced simultaneously, i.e. that a blank cut is already provided for one caliber.

Whether the corresponding portioning belt is moved forward after this first cut like the portioning belts on which a first slice was placed or not can be handled arbitrarily; regardless of this, on the portioning belt on which no slice was placed during the first cut, the portion will start further back than on the portioning belts on which a slice was already placed during the first cut.

This approach maintains a high degree of variability in the remaining process for parallel portion production, particularly with regard to whether or not a blank cut is made for one of the calibers during the last cut for this group of calibers.

Preferably, the last cut for the group of portions is a blank cut, i.e. not a slice is cut from all calibers.

Of course, a distinction must be made as to whether there is one portioning belt per track, which can be operated separately and independently of the others in terms of its movement (track-individual portioning belt), or whether there is only one common drive across all tracks, either across all separate portioning belts, or whether there is only one single, wide portioning belt that extends across all tracks, i.e. across the entire track area.

With individual lane portioning belts, the distance between slices within a portion can be selected differently from lane to lane so that, despite an unequal number of slices, the portion length is the same for all portions, i.e. on all lanes.

This results in a consistent visual appearance.

Above all, a slice can then be cut off between the first and the last cut without the need for further blank cuts, especially if the number of slices within the portions differs by only one slice.

Preferably, those calibres from which no slice was separated during the first cut are of the same type, in particular the same consistency, for example sausage or cheese or the same variety within this category and/or these calibres have the same cross-sectional dimensions, at least the same height.

The same applies to those calibers where no slice is cut off during the last cut for a portion.

However, if there are one or more portioning belts with only one common drive, the disc spacing within all parallel portions between two consecutive discs must be the same, unless - preferably in the middle area of the portion - an empty cut is made in one caliber in order to achieve the same portion length despite the different number of discs.

Preferably, however, with a common portioning belt drive, the cutting is carried out in such a way that no more slices are cut off during the last cut for a portion of at least one caliber.

This increases the variability of the procedure.

If several portions are to be brought together in a package downstream of the portioning belt, i.e. if they are to be placed in the package at a distance from one another in the transverse direction or partially overlapping, the portions are preferably brought into the same longitudinal position in the package with their front and/or rear ends before or during the bringing together.

Preferably, after the penultimate cut for the portions produced next to each other, only the portioning belts of those tracks on which a last slice for this portion still has to be placed are moved forward.

This creates portions that end at the same longitudinal position.

When merging or even beforehand - for example by means of the insert itself or by means of an upstream compensating belt - the portions can be left in their relative position to one another with respect to the longitudinal direction either as they were delivered and in particular as they were delivered by the discharge unit of the slicing machine, or - in the case of different portion lengths - brought to a smaller initial and/or final distance from one another in the longitudinal direction than the original initial or final distance, of which there was usually only an initial distance or only an end distance when the portions were produced.

This one distance is often distributed into a starting distance and an end distance that are half as large when placed in the packaging.

c) Examples of implementation

Figuren 1a, b:

eine Aufschneide-Maschine in Form eines Slicers gemäß dem Stand der Technik in unterschiedlichen perspektivischen Ansichten, mit in die Aufschneidestellung hochgeklapptem Zufuhrband,

Figur 2a:

eine vereinfachte und von Verkleidungsteilen befreite Seitenansicht der Aufschneide-Maschine, sodass die einzelnen Förderbänder besser zu erkennen sind, beladen mit einem ProduktKaliber,

Figur 2b:

eine Seitenansicht gemäß Figur 2a , aber mit in die Beladestellung herabgeklapptem Zufuhrband und bis auf einen KaliberRest aufgeschnittenes Produkt-Kaliber,

Figur 3a - c:

Situationen auf der Abförder-Einheit bei separat und unabhängig voneinander steuerbaren Portionier-Bändern in der Aufsicht,

Figur 4a, b:

Situationen auf der Abförder-Einheit bei nicht unabhängig voneinander steuerbaren Portionier-Bändern, hier dargestellt in Form eines einzigen breiten, über alle Spuren durchgehenden, Portionier-Bandes in der Aufsicht,

Figuren 5:

Situationen in der Aufsicht von oben beim Zusammenführen mehrerer Portionen nebeneinander in einer Verpackung.

Embodiments according to the invention are described in more detail below by way of example. They show:

Figures 1a, b:

a slicing machine in the form of a slicer according to the state of the art in different perspective views, with the feed belt folded up into the slicing position,

Figure 2a:

a simplified side view of the slicing machine, free of panel parts, so that the individual conveyor belts can be better recognized, loaded with a product caliber,

Figure 2b:

a side view according to Figure 2a , but with the feed belt folded down into the loading position and the product caliber cut down to a caliber remainder,

Figure 3a - c:

Situations on the discharge unit with separately and independently controllable portioning belts in the top view,

Figure 4a, b:

Situations on the discharge unit with portioning belts that cannot be controlled independently of each other, shown here in the form of a single wide portioning belt running across all tracks in top view,

Figures 5:

Situations viewed from above when combining several portions next to each other in one package.

The Figures 1a , 1b show different perspective views of a multi-lane slicer 1 for the simultaneous slicing of several product calibers K on one lane SP1 to SP4 next to each other and depositing them in shingled portions P each consisting of several slices S with a general flow direction 10* through the slicer 1 from right to left.

Figure 2a shows - with caliber K inserted - a side view of this slicer 1, omitting covers and other parts that are not relevant to the invention, which, like all other units, are attached to the base frame 2, so that the functional parts, especially the conveyor belts, can be seen better. The longitudinal direction 10 is the feed direction of the calibers K to the cutting unit 7 and thus also the longitudinal direction of the calibers K located in the slicer 1.

It can be seen that the basic structure of a slicer 1 according to the prior art consists in that a cutting unit 7 with a knife 3 rotating about a knife axis 3', for example a sickle knife 3, is fed several, in this case four, product calibers K lying next to each other on a feed conveyor 4 transversely to the feed direction 10 with spacers 15 of the feed conveyor 4 in between by this feed unit 20, from the front ends of which the rotating knife 3 with its cutting edge 3a cuts off one slice S in each case in one operation, i.e. almost simultaneously.

For cutting the product caliber K, the feed conveyor 4 is located in the Figures 1a - 2a shown in the side view, oblique slicing position with a low-lying cutting-side front end and a high-lying rear end, from which it can be folded down about a pivot axis 20' running in its width direction, the first transverse direction 11, which is located near the cutting unit 7, into an approximately horizontal loading position, as shown in Figure 2b is shown.

The rear end of each caliber K in the feed unit 20 is in accordance with Figure 2a each held in a form-fitting manner by a gripper 14a - d with the aid of gripper claws 16. These grippers 14a - 14d, which can be activated and deactivated with regard to the position of the gripper claws 16, are attached to a common gripper carriage 13, which can be guided along a gripper guide 18 in the feed direction 10.

In this case, both the feed of the gripper carriage 13 and the feed conveyor 4 can be driven in a controlled manner, whereby the actual feed speed of the calibers K is brought about by a so-called upper and lower product guide 8, 9, which is also driven in a controlled manner and which engages the upper and lower sides of the calibers K to be sliced in their front end areas near the cutting unit 7:
The front ends of the calibers K are each guided through a product opening 6a - d of a plate-shaped cutting frame 5, with the cutting plane 3" running directly in front of the front, diagonally downward-facing face of the cutting frame 5, in which the knife 3 rotates with its cutting edge 3a and thus cuts off the excess of the calibers K from the cutting frame 5 as a disk S. The cutting plane 3" runs perpendicular to the upper run of the feed conveyor 4 and/or is spanned by the two transverse directions 11, 12 to the feed direction 10.

The inner circumference of the product openings 6a - d of the cutting edge 3a of the knife 3 serves as a counter cutting edge.

Since both product guides 8, 9 can be driven in a controlled manner, in particular independently of each other and/or possibly separately for each track SP1 to SP4, they determine the - continuous or clocked - feed speed of the calibers K through the cutting frame 5.

The upper product guide 8 is displaceable in the second transverse direction 12 - which runs perpendicular to the surface of the upper run of the feed conveyor 4 - in order to adapt to the height H of the caliber K in this direction. Furthermore, at least one of the product guides 8, 9 can be designed to pivot about one of its deflection rollers in order to be able to change the direction of the run of its guide belt lying against the caliber K to a limited extent.

The slices S, which are positioned at an angle in space during separation, fall onto a discharge device 17 which begins below the cutting frame 5 and runs in the direction of flow 10* and which in this case consists of several discharge units 17a, b, c arranged one behind the other in the direction of flow 10* with the upper strands of their conveyor belts approximately flush, of which the first discharge unit 17a in the direction of flow 10 can be designed as a portioning belt unit 17a and/or can also be designed as a weighing unit.

The slices S can impinge on the portioning belt unit 17a individually and at a distance from one another in the direction of travel 10* or, by appropriately controlling the portioning belt 17a of the discharge device 17 - the movement of which, like almost all moving parts, is controlled by the control 1* - they can form shingled or stacked portions P by stepwise forward or backward movement of the portioning belt 17a.

Below the feed unit 20 there is usually an approximately horizontally running residue conveyor 21, which begins with its front end below the cutting frame 5 and immediately below or behind the discharge unit 17 and with its upper run thereon - by means of the drive of one of the discharge conveyors 17 against the direction of flow 10 - transports falling residues to the rear.

In this case, a distinction must be made as to whether the portioning belts 17a can be controlled separately and independently of one another, i.e. with regard to the movement of the circulating conveyor belt, or whether all existing portioning belts 17a have a common drive and can only be driven jointly and synchronously, which has the same effect as a wide portioning belt 17a running in the transverse direction 11 across all tracks SP1 to SP4 of the machine 1.

The Figures 3a - c show a discharge unit 17 of a slicer 1 with independently controllable portioning belts 17a, i.e. one portioning belt 17a per track.

In this case, portions with five slices each are produced on tracks SP1 and SP3 - the calibers K1 and K3 on these tracks are preferably of the same type, i.e. in particular they have the same cross-section - apart from production inaccuracies - and/or consist of the same foodstuff - while portions with four slices S each are produced on tracks SP2 and SP4. Nevertheless, the length L of the portions P is the same on all tracks SP1 to SP4, which is achieved by choosing the slice spacing AS to be correspondingly larger for the small portions - i.e. the portions with a smaller number of slices - on tracks SP2 and SP4 than for the large portions on tracks SP1, SP3.

In this case - symbolically represented by a tightened rectangle - an empty cut LS was made on the tracks SP2 and SP4 when the first slices were cut on the other two tracks SP1 and SP3, and after the first cut, all portioning belts 17a were moved forward by one slice spacing AS of the respective portioning belt 17a.

In this way, portions P each having the same length L are produced on the portioning belts 17a, whereby, however, the front end of the small portions in the direction of flow 10* is set back from the front ends of the large portions by an initial distance AA.

In this constellation, according to Figure 3a all four portions are transferred synchronously to the transfer belt 17b - which is typically a conveyor belt running across the entire width in the transverse direction 11 - so that the corresponding initial distance AA is also present there, and conversely, a corresponding end distance AE by which the rear end of the small portions on the tracks SP2 and SP4 is set back relative to the rear ends of the large portions on the tracks SP1 and SP3.

According to Figure 3b Of course - depending on the respective work order - during the transfer from the portioning belts 17a to the transfer belt 17b, by running faster or starting earlier those portioning belts 17a on which the front end of the portion P is set back from the other portions P by the initial distance AA, these initial and final distances AA, AE can be compensated for, so that the portions P - which are of the same length anyway - are then located on the transfer belt 17b with both their front and their rear ends in the same longitudinal position in the direction of flow 10*.

However, it can also be Figure 3c It may be desired that an initial distance AA' - usually smaller than the original - is deliberately created between the small and the large portions P in order to achieve a certain appearance, for example, if according to the Figures 5 unequal portions P are to be subsequently stored together with packaging.

The Figures 4a , b, on the other hand, show a discharge unit 17 in which the portioning belts per track SP1 to SP4 cannot be controlled independently of one another, but in this case there is only one portioning belt 17a and it passes through all tracks SP1 to SP4 in the transverse direction 11.

Here, too - as in the Figures 3 - on tracks SP1 and SP3 portions with five slices are produced, and on tracks SP2 and SP4 portions with only four slices, however, regardless of this, the slice spacings AS within the portions P are necessarily the same length for all portions P, i.e. on all tracks SP 1 - SP4, so that different portion lengths L result.

In this case, Figure 4a In the first four cuts, one slice S is cut from each calibre K1 to K4, and in the last cut only from the calibres K1 and K3, whose portions P should comprise one more slice S.

For tracks SP2 and SP4, an empty cut LS was made during the last cut, as the calibers K2 and K4 there did not protrude beyond the cutting plane 3" during the last cut.

Accordingly, the portions P on all tracks SP1 to SP4 begin at the same longitudinal position on the portioning belt 17a.

Due to the lack of a track-specific change option, after transfer of these portions P created simultaneously next to each other, the four portions after transfer to the transfer belt 17b are also in the same constellation, i.e. longitudinal position, to each other as before on the portioning belt 17a.

Figure 4b shows, however, the situation that for the small portions to be produced, i.e. on tracks SP2 and SP4, an empty cut LS was carried out during the first cut for the portions P to be produced in parallel and thus the front end of the portions on tracks SP2 and SP4 is set back by a slice distance AS - which is the same within all portions in this constellation - compared to the front end of the large portions P on tracks SP1 and SP3.

Here too, the portions produced simultaneously next to one another in the transverse direction 11 are in the same constellation as regards the longitudinal position in the throughput direction 10* after transfer to the transfer belt 17b due to the lack of a track-specific change option.

The Figures 5a - c show the merging of two portions P produced next to each other together in a packaging V, here a packaging trough of a deep-drawing belt, into which they are inserted via an insert 22.

If the feeder 22 or a belt unit located between the discharge unit 17 and the feeder 22 consists of adjacent conveyor belts that can be driven separately and independently of one another - here the feeder 22 itself - the longitudinal positions of the portions P brought together in a packaging V can still be varied with regard to their mutual longitudinal position before or during introduction into the packaging V.

As a result, even in the case of a portioning belt 17a consisting of portioning belts 17a that cannot be controlled independently of one another, the longitudinal positions of the portions in the packaging V can be changed, but of course the slice spacings AS between the slices S in a portion and/or thus also the portion lengths L cannot be changed.

This shows Figure 5a the situation that the portions previously located next to each other in the discharge unit 17, which had both an initial distance AA and an end distance AE, are brought with their portion start to the same longitudinal position and, due to the same portion length L, are also located with their portion end in the same longitudinal position in the packaging V, regardless of whether the portions P are placed next to each other in the packaging V with a distance or are placed overlapping in the transverse direction 11, both of which can be alternatively placed in Figure 5a is shown.

Figure 5b shows, however, the situation that the portions having an initial distance and an end distance, which has already been reduced on the insert 22 compared to the original initial and end distance because this is desired according to optical specifications, are left as they are when transferred to the packaging V.

Figure 5c shows the situation that the portions having an unequal length, as can only be produced with a portion belt 17a that can only be controlled uniformly with a different number of slices, and which either have an initial distance AA or an end distance AE between unequal-sized portions, are offset from one another in the longitudinal direction when placed on pack contents that have only an initial distance or only an end distance, so that they have both an initial distance AA and an end distance AE, but this is smaller than the original initial distance AA or final distance AE, usually half of each.

REFERENCE SYMBOL LIST

1

slicing machine, slicer

1*

steering

2

base frame

3

Knife

3

axis of rotation

3"

knife plane, cutting plane

3a

cutting edge

4

feed conveyor, feed belt

5

cutting frame

6a - d

product opening

7

cutting unit

8

upper product guide, upper guide belt

8.1

contact strand, lower strand

8a

knife-side pulley

8b

deflection pulley facing away from the knife

9

lower product guide, lower guide belt

8.1

contact drum, upper drum

9a

knife-side pulley

9b

deflection pulley facing away from the knife

10

transport direction, feed direction,

10*

Direction of passage through machine, longitudinal direction of machine

11

1. Cross direction (width slicer)

12

2. Transverse direction (height direction caliber)

13

gripper unit, gripper carriage

14.14 a - d

gripper

15

spacers

15'

support surface

16

gripper claw

17

discharge unit

17a, b, c

portioning belt, discharge conveyor

18

gripper guide

19

altitude sensor

20

feed unit

21

remnant conveyor

22

depositor

AS

disc spacing

AA

initial distance

AE

end distance

K

product, product caliber

KR

caliber remainder, remaining piece

L

length portion

LS

blank cut

S

disc

P

portion

V

packaging element, packaging

Claims (12)

Method for the parallel, essentially simultaneous, production of shingled portions (P) with different numbers of slices from slices (S) by means of a multi-lane slicing machine (1) for food calibers (K) with a rotating knife and individually controllable portioning belts (17a) downstream of the knife, in particular a slicer (1), in which - during the slicing of a portion (P), the knife (3) cuts off a slice (S) from each of the parallel-fed calibers (K) during at least one of the necessary revolutions, - In particular, the portioning belts (17a) are controlled so that the length (L) of the portions (P) produced parallel to one another is approximately the same regardless of the number of slices,
characterized in that - during the first cut, no slice (S) is cut off for a portion (P) of at least one calibre (K). (Separately controllable portioning belts:) Method according to claim 1,
characterized in that
the slice spacing (AS) of adjacent slices (S) within the portions (P) is selected such that the portion length (L) is the same for all portions (P) regardless of the number of slices. Method according to one of the preceding claims,
characterized in that - between the first and the last cuts, a disc (S) is cut from each calibre (K). Method according to one of the preceding claims,
characterized in that - those calibres (K) for which no slice (S) is separated during the first cut for a portion (P) of at least one calibre (K) are selected to be of the same type, in particular consistency. Method according to one of the preceding claims,
characterized in that - those calibres (K) for which no slice (S) is separated during the last cut for a portion (P) of at least one calibre (K) are selected, of the same type, in particular consistency. (Common, wide portioning band:) Method according to one of the preceding claims,
characterized in that
the disc spacing (AS) is chosen to be the same within all parallel portions (P). Method according to one of the preceding claims,
characterized in that - during the last cut, no slice (S) is removed for a portion of at least one calibre (K). (Combine several portions:) Method according to one of the preceding claims, wherein several of the portions (P) produced next to each other are then placed together in a packaging, spaced apart in the transverse direction or partially overlapping, characterized in that - before or during merging, the portions (P) are brought into the same longitudinal position in the packaging (V) with their front and/or rear ends, - in particular after the penultimate cut for the portions (P) produced next to each other, only the portioning belts (17a) of those tracks are moved forward on which a last slice (S) for this portion (P) still has to be placed. Method according to one of the preceding claims, wherein several of the portions (P) produced side by side at the same time are then placed together in a packaging (V), spaced apart in the transverse direction (11) or partially overlapping, characterized in that before or during merging, the portions (P) are left in their relative position to each other in the longitudinal direction (10). Method according to one of the preceding claims, wherein several of the portions (P) produced next to one another are then placed together in a packaging (V), spaced apart in the transverse direction (11) or partially overlapping, characterized in that before or during merging, the portions (P) are brought to a smaller initial distance and/or final distance from each other in the longitudinal direction (10) than was present on the (P) portioning belt (17a). Multi-lane slicing machine (1), in particular slicer (1), for slicing calibers (K) into slices (S) and creating shingled or stacked portions (P) from slices (S), with - a cutting unit (7) with a knife (3), - a feed unit (20) for feeding several calibers (K) to the cutting unit (7), - a discharge unit (17) with at least one portioning belt (17a), - a control (1 *) for controlling moving parts of the slicing machine (1),
characterized in that - the control system (1*) and the slicing machine (1) are designed such that they are capable of carrying out the method according to one of the preceding claims. Slicing machine (1) according to claim 11,
characterized in that
the discharge unit (17) has one portioning belt (17a) per track (SP1 - SP4) and the portioning belts (17a) can be controlled independently of one another.

Images