Bottle infeed and unscrambling
Moves empty bottles into the line at a controlled rate and presents them consistently to filling machinery.
Bottle machinery UK
Bottle machinery for filling, capping and packing lines.
Plan the bottle capper as part of the whole production line: filling, cap feeding, torque or seal control, labelling, coding, conveyors and packing flow.
Complete line thinking
A bottle capper works best when the whole line is balanced.
This page targets broader bottle machinery searches and helps customers understand how the capper connects to filling, handling, labelling and packing.
Bottle filling machinery
Doses liquids, creams, gels or other products before the capping stage, with layouts chosen around viscosity and hygiene needs.
Cap feeding and orientation
Feeds, lifts, sorts and presents closures so the capping head receives caps reliably.
Bottle capping machine
Applies torque, forms aluminium closures, presses caps or handles pumps and trigger sprayers according to the closure.
Labelling, coding and inspection
Adds labels, batch codes and checks before packing, with conveyors and accumulation keeping the line balanced.
Line layouts
Bottle machinery specified around the production area.
A good line layout considers operator loading, bottle infeed, clean access, cap replenishment, guarding, filling accuracy, capping consistency and downstream packing pace.
Entry-level production cell
Semi-automatic filling and capping with bench or compact conveyor handling for lower output and varied bottles.
Inline automatic line
Filler, cap feeder, capper, labeller and coder linked by conveyor for continuous production.
High-output line
Automated infeed, multi-head or high-speed capping, accumulation and inspection for repeat products and longer runs.
Machine options
Bottle cappers used in complete lines.
Screw cappers
Automatic belt / spindle screw capping machine
Inline bottle capper for threaded closures where repeatable torque, bottle control and continuous output are important.
- Best for
- Round bottles, threaded screw caps, higher-volume production.
ROPP cappers
Semi-automatic ROPP capper
Operator-fed roll-on pilfer-proof capping for aluminium closures on glass bottles and short production batches.
- Best for
- Wine, spirits, oils, premium glass bottles, batch production.
Pump cappers
Automatic pump bottle capping machine with vibrating bowl
Cap placement and tightening for pump closures where dip-tube handling, orientation and bottle stability matter.
- Best for
- Cosmetics, personal care, healthcare, soaps and sanitiser bottles.
Trigger cappers
Trigger sprayer pump bottle capping machine
Bottle capper for trigger sprayers and pump heads where cap geometry, tube control and threading need careful handling.
- Best for
- Household products, chemicals, sprays, cleaning products and car care.
Bottle machinery
Bottle filling and capping line integration
Integrated bottle machinery layouts covering filling, capping, cap handling, labelling, coding and conveyors.
- Best for
- Complete packaging projects, production upgrades and new automated lines.
Cap feeding
Pump bottle cap feeding machine
Dedicated pump cap feeding and presentation equipment for closures that cannot be treated like simple screw caps.
- Best for
- Pump closures, long dip tubes, orientated caps and reduced manual handling.
FAQs
Bottle machinery planning questions.
What bottle machinery can be combined with a capper?
Bottle filling machinery, cap feeders, conveyors, labellers, coders, accumulation tables, inspection equipment and packing benches can all affect the capping line layout.
Should filling and capping be specified together?
For many projects, yes. Fill product, container stability and line speed can influence the capping machine and conveyor layout.
Can an existing filler be used with a new capper?
Often it can, provided conveyor height, speed control, bottle spacing, accumulation and operator access are reviewed.
Planning a bottle machinery project?
Send product details, floor-space limits, bottle and cap samples, target output and notes on existing machinery. Lancing can advise on a practical capping or line integration route.
Line engineering
Define the interfaces between filling, capping, labelling and packing before selecting individual machines.
A capper may perform correctly in isolation and still fail to deliver the required line output if bottle accumulation, conveyor transfer, cap supply or downstream stops are not planned. A useful bottle machinery scope therefore describes both each machine and the behaviour between machines.
| Interface | Questions to resolve | Acceptance evidence |
|---|---|---|
| Filler to capper | Can filled bottles remain stable? Is product present on the neck? What spacing, transfer and accumulation are required? | Representative filled bottles transfer without spill, collision or unstable presentation to the capping station. |
| Cap supply | How are closures loaded, sorted, oriented, buffered and replenished? What happens after a short stop? | The feeder recovers from normal refill and stop/start events without persistent jams or incorrect presentation. |
| Capper to inspection or labelling | How are missing, high, skewed or incorrectly tightened caps detected or contained? Does the bottle remain aligned? | Agreed sample defects are identified where inspection is included, and good bottles transfer consistently downstream. |
| Controls | Which machine starts, stops or faults the line? How are blocked and starved conditions communicated? | A documented cause-and-effect test demonstrates normal running, controlled stopping, restart and fault handling. |
| Changeover | Which settings and parts change for each bottle, cap, fill and label format? | Operators complete the agreed changeover and first-off checks using the supplied procedure and tools. |
Output evidence
Prove the complete line at a representative condition, not as disconnected machine demonstrations.
Define the test pack
Agree bottle, closure, fill condition, label and any worst-case formats before the test.
Set the sustained rate
State the required good bottles per minute or hour and the representative run duration.
Exercise line events
Include normal replenishment, blocked downstream, starved upstream and controlled restart.
Record quality
Track rejects, spills, missing caps, torque or opening checks, labels and pack damage.
Capture settings
Record recipes, mechanical positions, change parts and first-off approval checks.
Use the filling and capping line page for the integrated process, cap feeder guidance for closure supply and the quotation checklist to prepare layout and output information.
Bottle line FAQ
Questions that affect a complete bottle machinery project.
How much accumulation is needed between machines?
The answer depends on the frequency and duration of normal micro-stops, the bottle stability and the line-control philosophy. Accumulation should be sized from observed or agreed operating conditions rather than added without a purpose.
Why must filled bottles be included in a capping-line trial?
Filled weight can improve stability, while product on the neck, foaming, splash or flexible sidewalls can make capping harder. The actual fill condition may therefore change guides, supports, timing and acceptance results.
What should happen when the downstream machine stops?
The line should enter a controlled blocked condition, preserve product where possible and restart without creating bottle pressure, spills, cap faults or a surge beyond the next machine’s capacity.
Can machines from different suppliers be integrated?
They can, provided the mechanical transfer, conveyor height, speed range, electrical signals, safety responsibilities and documentation boundaries are agreed clearly before installation.
What is the difference between a machine test and a line acceptance test?
A machine test confirms an individual function. A line acceptance test demonstrates the agreed products, interfaces, controls, quality checks and sustained output across the combined equipment.
What information is needed for a first bottle-line proposal?
Provide bottle and cap samples, product and fill method, required output, line sequence, available footprint, utilities, existing equipment details, changeover list and the quality checks expected at handover.