Liquids
Free-flowing, foaming, oily or medium-viscosity products.
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Automatic filling machinery · specified around your production
Find the right automatic filling machine for your product, pack and output
Tell us what you fill, the pack size and the output you need. We’ll compare practical machine routes and show how filling, capping and labelling can work as one line.
- Cleaner, repeatable filling
- Output planned around your target
- Filling, capping and labelling integration
40+years of filling and packaging machinery experience
Product firstMachine choice based on how your product actually behaves
Single machineor a complete filling, capping and labelling line
UK supportSpecification, installation, training and aftercare
Start with your product
What are you filling?
Choose the product behaviour closest to yours to narrow the most suitable automatic filling methods.
Pastes and viscous products
Creams, sauces, honey, gels, adhesives and products that string.
View optionsPowders and granules
Fine powders, ingredients, coffee, detergents, seeds and pellets.
View optionsAggressive chemicals
Acids, alkalis, oxidisers, bleaches and chemically demanding liquids.
View optionsThin level-filled liquids
Perfume, essential oils and selected liquids in rigid bottles.
View optionsComplete automatic lines
Container infeed, fill, cap, seal, label, code and inspect.
View optionsChoose with confidence
Choose the filling method that protects your product and output
Viscosity, particles, foam, temperature and pack shape can change the right dosing method—even when two products have the same name.
Machinery options
See automatic filling configurations you can compare
Compare how nozzle count, filling principle and product-contact materials can be adapted for different products, packs and output targets.
Higher throughput
Twelve-head servo filling
For higher-output paste and viscous-product projects where multiple nozzles and controlled product feed can reduce cycle time.
View servo fillers
Continuous motion
Dual tracking-head filling
For lines that need filling while containers remain in motion, helping raise output without simply adding more stop-start stations.
View tracking fillers
Chemical compatibility
Automatic corrosive liquid filling
For strong acids, alkalis and aggressive liquids where compatible materials, enclosure and spill control are central to the design.
View chemical fillersFrom enquiry to production
What you can expect from sample review to installed line
A clear project route helps you confirm performance, interfaces and acceptance criteria before the machine reaches production.
- 1
Application review
Product, fill range, pack, closure, speed, cleaning and utilities.
- 2
Machine and line concept
Dosing principle, nozzle count, product feed and container journey.
- 3
Testing and confirmation
Representative product and containers where the application requires it.
- 4
Build, acceptance and support
FAT, delivery, installation, training and production handover.
Machinery in action
Watch automatic filling machinery working
Use the demonstration to review container handling, guarding and station layout, then discuss the configuration needed for your own product and line.
See how bottles are presented, filled and transferred through a compact automatic system. Your final layout will be matched to your own pack and required speed.
Automatic filling machinery in operation
Watch bottles move beneath the filling heads and review the filling sequence before discussing your own product, container and required output.
Your application
Find a filling route for your sector
Start with your product sector to focus on the hygiene, safety, cleaning and pack-handling details that matter to your operation.
Food and beverage
Sauces, oils, syrups, honey, jams, powders and ingredients.
View optionsCosmetics and personal care
Creams, lotions, gels, shampoos, serums and fragrance.
View optionsChemical and household
Detergents, acids, alkalis, lubricants and industrial liquids.
View optionsPharmaceutical and healthcare
Controlled bottle filling, closure security and documentation.
View optionsAdhesives and sealants
Heavy, sticky, stringing and industrial paste products.
View optionsContract packing
Flexible recipes, formats and rapid product changeover.
View optionsGet practical advice
Get a practical recommendation for your product
Send your product, fill range, container and required output. We’ll use those details to compare realistic machine routes before you commit to a specification.
Practical answers
Automatic filling machine FAQs
Straight answers to the questions buyers ask before shortlisting an automatic filler or complete line.
Which automatic filling machine should I choose?
Start with product behaviour, fill range, container, target output, cleaning and line integration. The correct route may be piston, pump, flow, vacuum, auger or weigh filling.
Can Lancing supply a complete automatic filling line?
Yes. Projects can include infeed, rinsing, filling, cap or lid application, capping, sealing, labelling, coding, inspection and conveyors.
Can products and containers be tested before order?
A sample-led review can be arranged where product behaviour, container stability, particles, foam or cut-off create uncertainty.
Where is Lancing Ltd based?
Lancing Ltd is based at Unit 5A Jefferson Way, Thame, Oxfordshire, OX9 3SZ, United Kingdom.
Selection framework
Build the shortlist around evidence, not a catalogue model
A disciplined selector keeps liquid, paste, powder and complete-line pages distinct while giving buyers one clear route into an automatic filling project.
Use the product and pack to eliminate unsuitable routes
A useful automatic filling machine shortlist is built by removing options that cannot manage the real product, rather than starting with a preferred model. The first gate is product behaviour at the temperature and condition seen in production. Flow can change during a shift; particles can bridge or damage valves; foam can extend the cycle; and a stringing product may need controlled cut-off. The second gate is the complete dose range. A machine must be considered at the smallest and largest required fills, including the containers that will actually be run.
The third gate is container handling. Bottle stability, opening diameter, shoulder shape and the available filling window determine guides, sensors, nozzle movement and indexing. The fourth gate is sustained output across the whole line. Capping, labelling, coding and accumulation must support the target, otherwise extra filling heads do not create useful production. Cleaning, product recovery and changeover then decide whether the proposed product path is practical for everyday use.
Where a specialist Lancing domain owns a narrower search and buying task, this site keeps the explanation at selection level. Use Liquid Fillers UK, Paste Fillers UK, Powder Fillers UK or Volumetric Fillers UK when the project has reached a specialist technology comparison.
| Route | Product suitability | Dose and output | Accuracy conditions | Cleaning and utilities |
|---|---|---|---|---|
| Piston or positive displacement | Liquids through to viscous products where valves, cylinder and nozzle can pass the product | Range and head count are selected around the real minimum, maximum and cycle | Stable feed, repeatable product condition and clean shut-off must be demonstrated | Confirm product recovery, strip-down or flush route, electrical supply, air and product feed |
| Pump or flow-controlled filling | Free-flowing and selected medium-viscosity liquids with a suitable pump and measurement method | Output depends on product flow, nozzle count, fill profile and container handling | Calibration must be checked at the real dose, temperature and supply pressure | Confirm pump cleanability, hose or pipe route, electrical supply and any product-transfer system |
| Vacuum level filling | Suitable thin liquids in rigid containers where a consistent visual level is required | The container seal, neck and liquid recovery route shape the cycle | Container rigidity and neck consistency are part of the acceptance conditions | Confirm vacuum source, recovered-liquid handling and cleaning of the product path |
| Auger or weigh dosing | Powders and granules selected by flow, bulk density, dust and particle behaviour | Fill weight, pack opening, settling and downstream closing determine sustained output | Trials should use representative product and normal feed conditions | Confirm dust control, hopper access, product feed, electrical supply and compressed air where used |
| Tracking or multi-head automatic filling | Repeatable packs and products where conveyor motion or parallel heads can raise useful throughput | The slowest line station, product supply and changeover time determine the benefit | Head-to-head balance and container position must be checked under sustained operation | Confirm conveyor controls, sensors, guarding, electrical and pneumatic interfaces |
Send your project details
Lancing can use this evidence to compare practical automatic filling routes before a model and line layout are fixed.
Further buyer questions
More questions before choosing an automatic filler
These answers cover the evidence and acceptance decisions that make quoted performance easier to compare.
Why can two automatic filling machines quote different outputs?
Quoted output can be based on different products, doses, head counts and line assumptions. Compare sustained performance using the same product condition, container, fill quantity, accuracy requirement and downstream equipment.
What should be agreed before factory and site acceptance testing?
Agree the representative product and packs, target dose and tolerance, sustained output period, reject rules, changeover scope, cleaning demonstration, utilities and the evidence that will be recorded at FAT and SAT.
Plan the complete project
Technical guides for the decisions behind an automatic filling line
Use these resources to move from an initial machine search to a controlled brief, representative trial, installable layout and acceptance plan.
Compare automation levels
Decide whether semi-automatic, compact automatic or integrated operation fits the batch pattern, labour task and changeover frequency.
Select an automatic bottle filler
Connect the dosing method to bottle stability, neck opening, nozzle behaviour, closure-zone cleanliness and capping handover.
Understand quotation cost factors
Compare engineering scope, assumptions, trials, controls, integration and documentation rather than headline machine descriptions.
Prepare samples and acceptance tests
Define the question for a product trial, then convert the accepted scope into FAT, SAT and commissioning evidence.
Plan container handling and layout
Control pack infeed, indexing, transfer, accumulation, operator access, utilities and fault recovery around the filler.
Diagnose and maintain the process
Separate product, channel, container and line causes, then build maintenance and spares around real failure consequences.
Start with the evidence you already have
Send production product and pack information, current process photographs or video, fill range, target output, cleaning expectations and the intended stations before and after filling. Lancing can identify which decisions are ready for quotation and which need samples, drawings or a trial.
Project definition
Questions to answer before an automatic filling project starts
These questions turn an initial machinery enquiry into an engineering brief that can be trialled, quoted and accepted.
What should a buyer decide before comparing machine brochures?
Decide what the production system must achieve before comparing equipment descriptions. Record the products, dose range, containers, closures, sustained output, cleaning method, operator role, site constraints and downstream process. A brochure can show a machine category, but it cannot prove suitability for an undefined duty.
Separate mandatory requirements from preferences and unknowns. Unknown product or pack behaviour should become a trial question rather than an assumed specification.
Why is a representative production day more useful than a peak speed?
A representative production day includes changeovers, refills, short stops, cleaning and normal line interactions. Peak speed describes only a favourable moment and can hide the events that determine useful shift output. Buyers should model the actual product mix and time available for production.
Use the output calculator for scenarios, then define which assumptions must be demonstrated during acceptance.
What makes an automatic filling enquiry ready for engineering review?
An enquiry is engineering-ready when the product, pack and production boundaries are clear enough to identify a practical dosing and handling route. Include representative product information, dose range, container and closure drawings or samples, output, cleaning, environment, utilities and existing line interfaces.
Where a value is unknown, state the uncertainty and the evidence needed to resolve it. That is more useful than a guessed figure.
When should the filler and closure equipment be specified together?
Specify filling and closure handling together whenever the filled neck condition, foam, product tail, container stability or transfer time can affect capping or sealing. A filler can meet its dose requirement while leaving a wet thread or unstable bottle that fails at the next station.
Include production closures in trials and review the complete bottle journey through the automatic filling-line guide.
Which project assumptions should be written into the quotation?
Write down every assumption that could change machine scope, performance or acceptance. Typical examples include product temperature, density, viscosity, bottle tolerance, available utilities, operator loading, upstream pressure, downstream capacity and the formats included in the base price.
Give each assumption an owner and resolution point. An assumption should never be allowed to appear later as a confirmed fact.
Turn the answer into a controlled project decision
Send the product, pack and production evidence that applies to your line. Lancing can identify the next trial, specification or integration step without treating an assumption as a confirmed result.