Compare screw, ROPP, pump, trigger, press cappers and cap feeders.
Use the range below to compare likely machine routes. We confirm the final specification against your real bottle, cap, liner, required torque, line speed and production layout.
Torque repeatability, cap feed method and bottle stability decide whether a compact inline capper, automatic screw capper or belt/spindle capper is the right route.
Inline belt and spindle capping for round plastic bottles and higher-output screw-cap lines where repeatable torque and conveyor stability are required.
A production screw-capping route for spray bottles, pump closures and standard screw caps, with adjustable guides and stable in-line handling.
Space-saving inline capping for compact production rooms, laboratories and pilot lines where layout and fast changeover are important.
Automatic screw cap handling with bowl feeding for threaded closures where operator cap placement would limit line speed or consistency.
ROPP cappers form the thread and tamper band on the bottle neck. They are commonly used for wine, spirits, oils, beverages, syrups and premium glass bottles.
Operator-fed roll-on pilfer-proof capping for aluminium closures on glass bottles, short runs and controlled batch production.
Automatic ROPP capping with conveyor, cap sorting and line integration for beverage, oil and premium bottle production.
Multi-head ROPP format for higher line speeds where secure thread forming and pilfer-band finish must remain consistent.
Pump and trigger closures often require dedicated orienting, placement and tightening support because the cap shape is not symmetrical.
Automatic pump closure capping with vibrating bowl sorting and guided bottle transfer for cosmetic and personal-care lines.
Specialist pump-cap feeding and placement support for difficult pump and dispenser closures that need correct orientation before closing.
Dedicated trigger sprayer capping for cleaning, household and care bottles with cap handling designed around long trigger heads.
Press capping for push-on caps, lids and cover-style closures where vertical seating force and repeatable cap presentation are critical.
Published speed figures assume a compatible closure, stable bottle and suitable feed method. Lancing will help test real samples before final machine selection.
A capping project should be checked in sequence: closure type, bottle stability, torque or seating requirement, cap presentation, conveyor control and the evidence needed for a reliable quotation. The pages below add detail without changing the existing machine range or application pages.
Compare screw, ROPP, pump, trigger, press-on and cap-feeding routes in one parent-hub page before moving to specialist detail.
Compare capping routes →Use a qualitative model matrix to shortlist semi-automatic, chuck, spindle, inline, rotary, ROPP and cap-feeding routes without unsupported speed claims.
View the model matrix →Prepare the practical evidence Lancing needs: cap samples, bottle stability checks, feeder orientation, layout photos and production constraints.
Prepare trial evidence →The same bottle cap can behave differently once it is on a moving conveyor, held by a flexible container, or presented by a cap feeder. Before selecting a machine style, confirm how the cap is placed, how the bottle is supported and how the finished pack will be accepted.
| Machine style | Where it usually fits | Main risk to check | Useful internal page |
|---|---|---|---|
| Bench-top or semi-automatic capper | Short runs, start-up production, pilot batches and formats needing operator judgement. | Operator cap placement, repeatable bottle positioning and the correct tightening method. | Bench-top capping machines |
| Chuck or torque-controlled capper | Threaded caps where a controlled tightening action is more important than automatic cap feeding. | Bottle turning, over-tightening, low torque and tooling fit. | Chuck capping machines |
| Inline spindle or belt capper | Conveyor-fed screw-cap lines where caps can be presented reliably and bottles are stable. | Cross-threading, guide setting, cap pick-up and bottle side-grip consistency. | Spindle capping machines |
| ROPP capper | Aluminium pilfer-proof closures on compatible neck finishes. | Head tooling, roll formation and cap/neck compatibility. | ROPP capping machines |
| Cap feeder with automatic applicator | Lines where manual placement limits output, consistency or staffing. | Cap orientation, bowl/elevator suitability, transfer track stability and sensor logic. | Controls and integration checks |
Not every closure is tightened by a conventional screw-capping head. Crown caps are formed onto the bottle finish, vial seals are crimped around a matched vial-and-stopper assembly, and T-corks are pressed to a controlled seating position. Treating these as separate routes improves the quality of the machine shortlist.
Selection depends on the bottle finish, crown dimensions, bottle support, operator cycle and whether cap placement is manual or fed automatically.
Compare crown capping machines →The vial, elastomeric stopper and aluminium seal must be reviewed as one system. Samples are required to confirm head tooling and the inspection method.
Review vial crimp capping →Closure material, insertion force, seating depth, bottle support and presentation method all influence the correct machine configuration.
Review T-cork capping machines →Send representative closures and containers, including filled samples where product weight or bottle flexibility changes stability. Lancing can then compare the practical capping method and the level of automation.
Request a machine reviewThe same broad description can hide important differences in closure geometry, bottle support, tooling, cap presentation and everyday changeover work.
Closures that appear similar can differ in thread start, liner, tamper band, stiffness, surface finish, height or the way they must be presented. Those differences can change whether the correct route is chuck, spindle, ROPP, press-on, pick-and-place or another dedicated method.
A visual photograph is useful for early screening but does not show every functional feature. Compare controlled drawings and production samples, then check how the closure engages, seats and releases from the tooling. The machine route should follow the closure behaviour rather than its general appearance.
A practical changeover restores a previously approved format without guesswork, excessive dismantling or repeated trial-and-error adjustment. Good changeover design combines clearly identified parts, accessible adjustments, recorded settings, first-off checks and enough space for the operator to work safely.
The quickest theoretical adjustment is not always the most repeatable. Review the actual bottle guides, clamps, belts, capping heads, feed tracks and sensors that must change. Ask how the previous settings are recovered and how the first bottles are approved before normal production resumes.
Review capping machine changeover planning →A dedicated cell can be preferable when the existing conveyor cannot stabilise the pack, the production schedule needs independent operation, or the cap application requires operator access and controls that do not fit the current line. Adding a capper inline is usually stronger when product flow, accumulation and interfaces can be defined cleanly.
Compare the full operating route: container infeed, cap loading, good-pack outfeed, rejects, cleaning, access and production ownership. A compact stand-alone cell may reduce integration risk, while an inline solution may reduce handling and labour. The correct answer depends on the real process rather than floor space alone.
Fix the pack identity, required production outcome, cap presentation method, line boundary and acceptance approach before requesting a detailed quotation. These decisions define the tooling, controls, guarding interfaces, change parts and testing scope that form the machine price and technical responsibility.
Some information can remain as an option, but assumptions should be visible. List the base format, additional formats, target sustained output, utilities, current conveyor or filler, operator tasks, sample availability and who supplies any upstream or downstream signals.
Use the capping machine quote checklist →Send representative bottle and cap details plus the required production flow. Lancing can identify which machine families deserve a sample trial and which can be ruled out early.
Request capping adviceThese model-level pages use published first-party Lancing specifications as a screening guide. Final speed, tooling, footprint and acceptance conditions must be confirmed with the actual bottle, closure, product condition and production layout.
Operator-assisted bottle capping with automatic bottle clamping, manual or automatic cycling and replaceable cap tooling.
Review the LU-XG6100-class specification →A compact conveyor-based route for standard screw caps, spray closures and pump collars where floor space and format changes matter.
Review the LU-XG1870-class specification →A continuous inline route for round bottles with guiding belts, spindle tightening and optional automatic cap feeding.
Review the LU-XG440B-class specification →A threaded closure may need a shaped chuck, progressive spindle-wheel contact or another application route. Compare how the cap is gripped, how the bottle is restrained and how the finished pack will be inspected before choosing from a headline machine category.
Include cap height, side-wall shape, hinge or tamper feature, bottle neck finish, target output, cap placement method and accepted finished samples.
Request capping advice