
Semi-auto jerrycan filling
Operator-presented containers with controlled filling for varied products and smaller batches.
Read moreLarge-container filling
Larger chemical containers change the filling discussion. Output is still important, but weight control, operator ergonomics, container positioning, drip control and safe handling often matter just as much.
Specification
A 25L container is not just a larger bottle. It changes how the operator presents the pack, how the nozzle enters the opening, how drips are controlled, how the container is capped and how full packs leave the filling area.
Choose your equipment
The best choice depends on fill size, liquid behaviour and operator involvement.

Operator-presented containers with controlled filling for varied products and smaller batches.
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Conveyor-fed large-container filling where output and repeatability justify line automation.
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Options for acids, bleach and aggressive products where material compatibility and spillage control are critical.
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Filling, capping, labelling and conveyors planned around heavy or awkward containers.
Read moreComparison
| Input | Example | Why it matters |
|---|---|---|
| Container size | 5L, 10L, 20L, 25L, pail, drum | Determines fill control, lifting and conveyor requirements |
| Fill accuracy | By volume or weight | Determines dosing principle and weighing needs |
| Product flow | Thin, foamy, viscous, corrosive | Selects pump, nozzle and shut-off method |
| Closure | Screw cap, bung, lid, plug | Affects closing equipment and operator sequence |
| Full-pack handling | Manual, conveyor, palletising | Shapes layout and ergonomics |
Process
How are jerrycans, pails or drums loaded into the filling position?
Plan how full containers will move after filling before finalising the filler.
Large-container capping or lidding can become the bottleneck.
A line for 5L and 25L packs may need more adjustment than expected.
FAQ
Yes. 25L jerrycan projects normally need careful review of fill control, container handling, cap handling and operator ergonomics.
It depends on the product, accuracy requirement, container tolerance and production process. Weight filling is common for larger containers but should be specified from the project brief.
Some drum filling projects can be automated, but the best choice depends on drum handling, fill volume, product behaviour, site layout and safety requirements.
Speak to Lancing
Send the product, fill volume, container, closure and target output. Include SDS and compatibility notes where relevant.
Large-container engineering
Jerrycans, pails and drums create a different handling problem from small bottles. The empty pack may vary in tare, the neck may be offset, and the filled container can be too heavy for repeated manual lifting. Nozzle travel, platform size, conveyor transfer, cap application and spill containment should be considered before the dosing method is selected.
Weigh filling can be attractive for larger packs because the scale controls the delivered mass and can account for a tared container. Volumetric or flow routes may still be suitable where product properties and commercial requirements support them. Define whether the target is net mass, volume at a stated temperature or another legal/commercial measure, and agree how density and tare variation will be handled.
Lancing’s published LUGTW2S platform uses twin diving heads, weighing and a gear feed pump for a published 5–30 litre range. It is a reference route for compatible detergents, oils and industrial liquids. Final pump, materials, output and accuracy must be established with the actual product, pack and test method.
Controlled fill profile
A large-volume fill may begin quickly and then change to a slower top-off before the target. The transition point, valve response, pump stop and product remaining in the nozzle all affect the final result. A diving nozzle can reduce foam and splash, but its movement must remain clear of handles, moulded necks and unstable containers. Test low and high fill formats, low bulk level and a restart after pause.
| Risk | Design response to assess | Acceptance evidence |
|---|---|---|
| Tare variation | Individual tare, stored tare or gross-fill method | Measured net fills across representative empty containers |
| Foam or splash | Diving nozzle, staged flow, neck location and venting | External cleanliness, foam height, settled result and cycle time |
| Heavy finished pack | Roller/conveyor transfer, powered discharge or lifting aid | Operator task review and stable movement without impact or spillage |
| Overfill after pump stop | Valve position, hose length, cut-off compensation and drain-back control | Repeat fills at different bulk levels and pause durations |
| Container misplacement | Guides, stops, presence check and nozzle permissive | Safe no-container/no-fill response and recovery test |
Jerrycan and drum FAQ
It can be a strong route, but scale capacity, tare method, vibration, product feed and calibration all affect performance. Accuracy must be defined and tested under the agreed conditions.
Manual lance filling may suit some duties, but exposure, static, ergonomic load, splash, repeatability and interlocks require assessment. A supported or automatic nozzle is often preferable for repeat work.
Options range from manual torque-controlled tools to semi-automatic or automatic cappers. The cap, neck finish, handle position, container stiffness and required torque/seal evidence determine the route.
Possibly, if the platform, nozzle travel, metering range and handling method cover both. Large differences may justify dedicated change parts, recipes or separate stations.
Use real packs and product, test tare variation, staged flow, no-container/no-fill, pause/restart, overfill protection, nozzle movement, capping and movement of the filled pack.
Large-pack project
Send the container drawings, empty/filled mass, fill target, product, cap, presentation method, output and available floor layout.