LU-XG6100 Semi-Automatic Screw Capper
A compact bench-format screw capper with automatic bottle clamping and manual or automatic cycling for production formats that remain operator presented.
Published Lancing model references
Lancing bottle capping machine models and specifications
Compare evidence-backed model routes for semi-automatic and automatic screw capping, spindle capping, trigger closure feeding and ROPP aluminium closures.
Shortlist by methodMatch the capping principle to the closure and bottle before comparing output.
Check the envelopeUse published ranges as a screening tool rather than a universal compatibility claim.
Confirm with samplesFinal tooling, settings and sustained output are agreed from production components.
Direct answer
Which Lancing bottle capping model should a buyer shortlist?
Start with the closure method and automation duty. Use the LU-XG6100 class for operator-assisted screw capping, the LU-XG16 or LU-XG440B class for automatic screw-cap lines, the LU-XG446S for trigger orientation and placement, and the LU-XG60C or LU-XG440C8 routes for semi-automatic or automatic ROPP aluminium closures.
The published figures on this page are reference envelopes taken from current Lancing model information. Bottle stability, cap geometry, thread or neck finish, cap feeding, product condition, required quality checks and the connected line can all change the final configuration. A production-sample trial and written quotation remain the authority for the supplied machine.
Model comparison
Compare the model route before comparing a single speed figure.
The table separates machine method from reference output and highlights the evidence still needed for a dependable project decision.
| Model | Capping or feeding route | Published output reference | Confirmation boundary |
|---|---|---|---|
| LU-XG6100 class | Desktop semi-automatic screw capper | 20–60 bottles/min, format-dependent | Production samples and project duty required |
| LU-XG440B class | Automatic inline belt / spindle screw capper | 3,000–5,000 bottles/hour, subject to bottle and cap behaviour | Production samples and project duty required |
| LU-XG16 class | Automatic inline single-head / pneumatic capper | 20–60 bottles/min | Production samples and project duty required |
| LU-XG446S | Automatic trigger cap feeding and placement | 20–25 bottles/min | Production samples and project duty required |
| LU-XG60C class | Semi-automatic roll-on pilfer-proof capper | 25–30 bottles/min | Production samples and project duty required |
| LU-XG440C8 | Automatic rotary eight-head ROPP capper | 7,500 pieces/hour | Production samples and project duty required |
Detailed model pages
Open the machine page that matches the bottle and closure task.
Each page records the published screening data, practical selection boundary, trial inputs and connected-line evidence for one Lancing model route.
LU-XG440B Automatic Spindle Capper
An inline belt-and-spindle capping route for stable round bottles with pre-placed threaded caps and continuous production flow.
LU-XG16 Automatic Screw Capper
An inline pneumatic capping route combining bottle detection, controlled positioning and automatic tightening for screw caps, spray closures and pump formats.
LU-XG446S Trigger Cap Feeder
A closure-specific vibratory-bowl and pick-and-place system for orienting trigger heads, controlling dip tubes and presenting the closure to a bottle.
LU-XG60C Semi-Automatic ROPP Capper
An operator-fed roll-on pilfer-proof capping route that forms aluminium closures onto a compatible bottle neck using a dedicated roller head.
LU-XG440C8 Eight-Head ROPP Capper
A rotary eight-head ROPP capping route for higher-output aluminium closure lines with automatic bottle transfer and coordinated cap presentation.
Selection sequence
Use four decisions to avoid shortlisting the wrong capper.
A model should be selected from the pack and production duty, not from nominal cap diameter or headline speed alone.
1. Define the closure
Identify a pre-threaded screw cap, ROPP aluminium shell, pump, trigger, press-on closure or another format, together with drawings and production samples.
2. Define bottle control
Record filled weight, rigidity, neck position, base stability, orientation needs and the least stable format.
3. Define cap presentation
Decide whether an operator places each cap or an automatic bowl, elevator, chute and placement system are required.
4. Define accepted output
State the required conforming bottles over a representative run, including replenishment, stops, inspection and normal operator work.
Evidence before order
What must a model quotation confirm?
The quotation should make the final model, tooling, machine boundaries and acceptance evidence explicit.
Format matrix
List every bottle and closure variant, drawings, product condition, acceptable combinations and any orientation or cosmetic requirement.
Machine and line scope
Define cap feeding, conveyor direction and height, guarding, controls, utilities, change parts, connected machinery and operator tasks.
Acceptance plan
Agree finished-pack checks, sustained-output conditions, changeover evidence, fault recovery and the samples retained from FAT or a production trial.
Model questions
Common questions about Lancing capping model data.
Does a published dimensional range guarantee compatibility?
No. A range is useful for screening, but chuck fit, thread or neck finish, bottle support, cap presentation, liner or tamper features and product condition must be proved with real components.
Why can final output differ from the published reference?
Accepted output includes cap supply, bottle flow, tightening or forming, inspection, replenishment, stops, operator tasks and downstream conditions. The quoted acceptance test defines the result that matters for the project.
Can one model run several cap families?
Sometimes, but different closures can require different heads, chucks, guides, feeders, sensors and change parts. Every intended format must be listed and included in the sample review.
Are model pages a substitute for a quotation?
No. The model pages explain the current reference route. The written Lancing quotation and approved trial evidence define the machine supplied for the actual application.
Capping decisions and practical evidence
Use model data without assuming special-application approval
The published model envelopes above remain the starting point. They describe documented machine routes, not approval for every closure feature or thermal process.
What can the model comparison establish before samples arrive?
It can identify which capping principle and automation level deserves review. It cannot establish that a particular tether, vented liner or hot-fill package will survive the machine contacts and operating sequence. Keep that compatibility decision conditional and identify the trial needed before final quotation.