The invention relates to a supply device for the supply of filled sacks to a palletizing device, comprising a main supply belt for the supply of a first row of filled sacks on a sliding area of the palletizing device, wherein beneath the main supply belt at least one secondary feed belt is assembled for the supply of another row of filled sacks on the sliding area beneath a first row of filled sacks.

The invention relates to a supply device for the supply of filled sacks to a palletizing device, comprising a main supply belt for the supply of a first row of filled sacks on a sliding area of the palletizing device, wherein beneath the main supply belt at least one secondary feed belt is assembled for the supply of another row of filled sacks on the sliding area beneath a first row of filled sacks.

An automated palletizer includes an automated package pick device capable of moving packages from a package deposit section to a pallet to form a pallet load from packages, a controller that is operably connected to the automated pick device, the controller having a pallet load generator configured to determine a pallet load structure of mixed packages, the pallet load generator being programmed so that it determines the load structure from mixed package layers overlaid over each other at least one of the mixed package layers being formed of stacks of mixed packages, top and bottom surfaces of the stacks corresponding to the at least one mixed package layer respectively forming top and bottom surfaces of the at least one mixed package layer that are substantially flat. The controller generates commands for the pick device to build the pallet load from the load structure determined by the pallet load generator.

An automated palletizer includes an automated package pick device capable of moving packages from a package deposit section to a pallet to form a pallet load from packages, a controller that is operably connected to the automated pick device, the controller having a pallet load generator configured to determine a pallet load structure of mixed packages, the pallet load generator being programmed so that it determines the load structure from mixed package layers overlaid over each other at least one of the mixed package layers being formed of stacks of mixed packages, top and bottom surfaces of the stacks corresponding to the at least one mixed package layer respectively forming top and bottom surfaces of the at least one mixed package layer that are substantially flat. The controller generates commands for the pick device to build the pallet load from the load structure determined by the pallet load generator.

A case manipulator receives cases from an infeed conveyer and manipulates individual cases or groups of cases and transfers the manipulated cases to a row accumulator platform in a desired and pre-determined orientation and positioned on the accumulator platform to a desired and pre-determined location. The manipulation of individual cases, or groups of cases, is continued in a sequential operation until a complete row is formed on the accumulator platform according to a pre-determined build menu. The case manipulator includes a swing plate pivotal on a first axis and a paddle arm that is attached to the swing plate and pivotal on a second axis that is transverse to the first axis. The invention allows the palletizer to have the next case in a row transferred from the infeed conveyer to the row-build staging area while the case manipulator is operating on an already-delivered case.

A case manipulator receives cases from an infeed conveyer and manipulates individual cases or groups of cases and transfers the manipulated cases to a row accumulator platform in a desired and pre-determined orientation and positioned on the accumulator platform to a desired and pre-determined location. The manipulation of individual cases, or groups of cases, is continued in a sequential operation until a complete row is formed on the accumulator platform according to a pre-determined build menu. The case manipulator includes a swing plate pivotal on a first axis and a paddle arm that is attached to the swing plate and pivotal on a second axis that is transverse to the first axis. The invention allows the palletizer to have the next case in a row transferred from the infeed conveyer to the row-build staging area while the case manipulator is operating on an already-delivered case.

A case manipulator receives cases from an infeed conveyer and manipulates individual cases or groups of cases and transfers the manipulated cases to a row accumulator platform in a desired and pre-determined orientation and positioned on the accumulator platform to a desired and pre-determined location. The manipulation of individual cases, or groups of cases, is continued in a sequential operation until a complete row is formed on the accumulator platform according to a pre-determined build menu. The case manipulator includes a swing plate pivotal on a first axis and a paddle arm that is attached to the swing plate and pivotal on a second axis that is transverse to the first axis. The invention allows the palletizer to have the next case in a row transferred from the infeed conveyer to the row-build staging area while the case manipulator is operating on an already-delivered case.

A case manipulator receives cases from an infeed conveyer and manipulates individual cases or groups of cases and transfers the manipulated cases to a row accumulator platform in a desired and pre-determined orientation and positioned on the accumulator platform to a desired and pre-determined location. The manipulation of individual cases, or groups of cases, is continued in a sequential operation until a complete row is formed on the accumulator platform according to a pre-determined build menu. The case manipulator includes a swing plate pivotal on a first axis and a paddle arm that is attached to the swing plate and pivotal on a second axis that is transverse to the first axis. The invention allows the palletizer to have the next case in a row transferred from the infeed conveyer to the row-build staging area while the case manipulator is operating on an already-delivered case.

A squaring device provided to a counter ejector part that stops flat cardboard boxes fed from an upstream, using a front stop, in a downstream part of a box-manufacturing machine, receives and stacks the flat cardboard boxes in a stacking part in a hopper part, and ejects the stack as a batch. It includes a squaring plate that, while the stacking part retains in a stack position during a retention interval, squares the cardboard boxes stacked on the stacking part, in conjunction with the front stop, the retention interval being set in accordance with a feed speed of the cardboard boxes and a count setting for a stack of the cardboard boxes. A reciprocation driving unit drives the squaring plate to reciprocate toward and away from the front stop, and is configured to vary a speed ratio of a squaring speed for reciprocating the squaring plate, to the feed speed.

A squaring device provided to a counter ejector part that stops flat cardboard boxes fed from an upstream, using a front stop, in a downstream part of a box-manufacturing machine, receives and stacks the flat cardboard boxes in a stacking part in a hopper part, and ejects the stack as a batch. It includes a squaring plate that, while the stacking part retains in a stack position during a retention interval, squares the cardboard boxes stacked on the stacking part, in conjunction with the front stop, the retention interval being set in accordance with a feed speed of the cardboard boxes and a count setting for a stack of the cardboard boxes. A reciprocation driving unit drives the squaring plate to reciprocate toward and away from the front stop, and is configured to vary a speed ratio of a squaring speed for reciprocating the squaring plate, to the feed speed.