Machinery
Handling, transfer and conveyor equipment to connect filling, capping, labelling and packing stages.
Handling, transfer and conveyor equipment to connect filling, capping, labelling and packing stages.
Machinery page
Handling, transfer and conveyor equipment to connect filling, capping, labelling and packing stages.
Next step
Provide the product, packaging format, current process and the level of automation you want to achieve.
Discuss this requirement as part of your machinery specification.
Discuss this requirement as part of your machinery specification.
Discuss this requirement as part of your machinery specification.
Conveyor and handling selection
Conveyors are part of the production process, not simply a connection between machines. Their layout affects line balance, container control and how operators interact with the equipment.
Base shape, height, weight, centre of gravity, surface finish and product movement determine guide, belt and transfer requirements.
Filling, capping, labelling and packing stages rarely run in exactly the same cycle. Controlled spacing and suitable accumulation help prevent minor stops from affecting the complete line.
Guide adjustment, cleaning, reject removal, operator loading and maintenance access should be planned without creating unnecessary handling or unsafe reach points.
A packaging conveyor needs to present each container to the next machine in a stable and repeatable way. Transfer plates, belt transitions, guides and side contact can be critical for small, tall, flexible or uneven packs. The most difficult container often defines the handling arrangement more than the normal pack.
Accumulation provides a buffer between processes, but too much back pressure or uncontrolled contact can damage labels, disturb closures or create unstable queues. The control strategy should define how machines start, stop and respond to blocked or starved conditions. Sensors and interfaces need to be placed where they reflect the real product flow.
Line layout should also account for operator positions, sample removal, quality checks, reject access, cleaning and future changeovers. A compact layout is not automatically the most practical if it restricts access or creates unnecessary bends and transfers.
Manual transfer, rotary tables, indexing systems, star wheels or specialist handling may be more appropriate than a simple belt conveyor for very low volumes, unstable containers or processes requiring precise orientation. The handling method should be selected with the connected machines.
For a broader integrated-line planning reference, see the Packaging Automation UK line guide. Use the Lancing enquiry page for the actual layout and container details.
Buyer questions
Container samples and the connected machine layout are needed for a useful answer.
Container stability, weight, base shape, product sensitivity, transfer height, required spacing, cleaning and the machines on either side all influence the arrangement.
It depends on the stop-start behaviour of the connected processes and how long one stage should continue during a minor interruption. It should be defined from the actual line sequence.
They may need closer guides, reduced transfer gaps, controlled acceleration, side support or another handling principle. Filled and empty samples should both be assessed.
Connected lines normally benefit from blocked and starved logic, start-stop handshakes and clear sensor positions so that each stage responds predictably to product flow.
Often yes, where the range can be accommodated by guide and sensor adjustment. Very different bases, heights or stability may require change parts or separate handling sections.
Show line direction, machine interfaces, working height, bends, transfers, operator positions, access routes, accumulation areas, reject points and available floor space.
Line behaviour
Packaging conveyors should manage changing machine states, product queues and recovery after minor stops while keeping each pack stable and identifiable.
Each machine should know when its discharge cannot accept another product or when no product is available at its infeed. The response should be predictable and should not create open, uncapped or unlabelled queues.
A buffer is useful only when it provides enough time for a defined upstream or downstream interruption. Its capacity should be considered with container contact, label condition and restart behaviour.
The restart sequence should release products in a controlled order and spacing. Sensors, guides and machine permissions need to reflect the actual queue rather than only the commanded conveyor state.
Map what happens when the filler pauses, when the capper lacks closures, when the labeller changes a roll and when end-of-line packing is unavailable. For each event, state which conveyors continue, where products wait and what condition permits the line to restart. This creates a practical control description without assuming a particular PLC or hardware platform.
Sensor positions should correspond to meaningful product states. A blocked signal placed too far from the next machine may allow an unstable queue to form; a starved signal placed too close may cause unnecessary cycling. The project should also define how an operator removes a sample or reject without leaving the control system with an incorrect product count.
Small bases, high centres of gravity, flexible walls, protruding closures and freshly applied labels can all restrict transfer speed or the allowable gap between belts. Filled and empty containers should be observed because weight and internal product movement can alter stability. The same review applies to cases or bundles approaching coding or final packing equipment.
Conveyor changes should be grouped by format family. Record guide positions, sensor adjustments, transfer components and the test used to approve the first products after a change. Where a simple belt cannot provide reliable orientation or indexing, another handling method should be considered rather than adding excessive guide pressure.
The packaging line project brief provides a place to record machine interfaces, operating states and layout evidence before a final handling arrangement is selected.
Handling integration
The automated line integration guide defines machine handovers and accumulation. The controls and sensors guide explains blocked, starved, product-presence and restart states.
Use the site-preparation guide to confirm working heights, support, access and services. Where repeated transfer faults occur, record the pack format, line state and first failure point using the troubleshooting guide.
Material flow
Containers and closures need different handling stages before they reach a filler, capper or labeller in the required condition.
The container and closure feeding guide separates bulk storage, orientation, singulation, accumulation and transfer. At the machine boundary, define pack pitch, queue pressure, orientation and the signals that permit release.
For inspection or reject conveyors, review the inspection and rejection guide. Pack stability, spacing, conveyor surface and guide position determine whether the rejected item can be removed without disturbing good packs.
Containers fall or jam when the transfer gap, speed relationship, guide position, base support, accumulation pressure or pack stability does not suit the actual format. Observe where control is lost and test empty, filled and worst-case containers before changing several settings at once.
A container feeder should discharge into a controlled conveyor zone that preserves orientation, limits pressure and provides the next machine with the required spacing or queue. The interface should include level or demand signals and a defined response to a blocked downstream machine.
Empty-container handling
An empty-container infeed must do more than place bottles on a belt. Bulk bottles may need separation and orientation, while a pre-fill rinse may need inversion, drainage and protection from recontamination. Conveyor accumulation and controls should preserve the result through to filling.
Bottle unscrambling machinery converts a controlled bulk supply into upright, oriented containers. Bottle rinsing machinery applies a defined cleaning or removal process before filling. Either system can become a line constraint if discharge pressure, stop signals or bottle stability are not engineered with the conveyor.
Sensor positions should show when the downstream queue is full, when containers have completed the required process and when the filler is ready. The line should not allow an unprocessed bottle to bypass the infeed stage unnoticed.
