How to Optimise Your Filling Workflow

Getting the filling machine right is necessary but not sufficient. The machine operates within a workflow — a sequence of steps, decisions, and physical arrangements that together determine how much you actually produce per hour, how consistent that production is, and how much effort it costs you. Two beekeepers with identical machines can have very different results, depending entirely on how the workflow around the machine is organised.

This article is about the workflow: what it should look like, where the common inefficiencies hide, and how to systematically improve it.

A filling workflow doesn’t begin at the filling machine and end when the lid goes on. It begins when honey arrives from the extractor and ends when labelled, packed jars leave the room. Every step in between is part of the workflow, and a bottleneck anywhere limits throughput everywhere.

Map your process honestly before optimising any part of it:

• Honey extraction → settling tank
• Settling tank → filling machine (how? manual ladle? gravity hose? pump transfer?)
• Filling machine → jar
• Jar → capping station
• Capped jar → labelling
• Labelled jar → packing/storage

Where does product wait? Where do you move most? Where do errors happen? The answers to these questions tell you where optimisation has the most leverage.

Workflow efficiency begins with physical arrangement — and it’s the thing most producers never revisit once they’ve set up the room once.

Honey flow direction. Organise the room so honey moves in one direction: from the settling tank to the filling station to the capping station to packing. Crossing flows — where filled jars must pass empty jars, or where you must turn frequently — add seconds to every cycle and accumulate into significant lost time over a full session.

Working height. The filling machine should be at a height where you can operate it comfortably without bending or stretching. Incorrect working height causes fatigue disproportionately quickly in repetitive filling work. If you’re using a bench-top machine, get the bench height right — or add a platform if needed.

Jar flow. Empty jars should be within arm’s reach on one side; filled jars should move away from you on the other. Any arrangement that requires you to turn or reach across is a layout inefficiency.

Filling table surface. A stainless steel or food-grade surface that can be wiped down quickly between varieties is standard.

Drive mechanism inspection

The gear pump is driven by a motor through a coupling system. Every month, or before each major season, check the coupling for wear. Signs of coupling wear include unusual vibration during operation, inconsistent pump speed at a fixed setting, or grinding sounds that weren’t present before.

Fastener check

Vibration over time loosens fasteners. Check all visible fasteners on the pump head mounting, the machine body, and any bracket or stand fittings. A fastener that works loose during operation can cause alignment problems that damage pump components.

Lubrication

The motor bearings and drive mechanism on the Honeyaid® machine are designed for low maintenance, but periodic lubrication of accessible bearing points is good practice according to the machine’s service documentation. Use only food-safe lubricants on any components near the product flow path.

Calibration check

Over time, pump wear can cause slight drift in dosing accuracy — the machine delivers marginally more or less per cycle than its setting indicates. Check calibration monthly against a certified scale: fill ten jars at your standard setting and weigh each one. If mean weight has drifted by more than your acceptable tolerance, recalibrate and note the date. Persistent drift that recalibration cannot correct is a sign of pump wear requiring service.

In most filling sessions, the time lost to poor preparation exceeds the time lost to any process inefficiency. Honey that isn’t at working temperature takes longer to fill accurately and causes dosing inconsistency. Jars not sorted by format before the session cause repeated recalibration. Labels not ready when filling ends mean filled jars sit uncapped while you search for the right label sheet.

Build a preparation checklist and follow it before every session:

Honey: Is it at correct working temperature throughout the tank? Check with a thermometer at multiple depths — surface temperature can be correct while the bottom of the tank is still too cool. For large settling tanks, this can take longer than expected.

Machine: Is it clean and fully assembled from the last session? Are O-rings and seals in good condition? Is the dosing setting noted from the last equivalent session as a starting point?

Jars: Are they sorted by format? Inspected for chips or defects that would cause fill problems or rejected jars later?

Consumables: Are lids, labels, and packing materials ready and in sequence for the planned fill run?

Documentation: Is the production record sheet ready? If you’re using weight-based filling, is your calibration scale in position?

This preparation phase rarely takes more than fifteen minutes for a prepared operator. Skipping it consistently costs hours across a season.

Calibration at the start. Always run calibration fills before committing to production. This takes five minutes and eliminates the risk of discovering a dosing error after 200 jars. Document the confirmed setting.

Spot-check weighing. Every 20–30 jars, weigh one jar against the target. Dosing can drift with temperature changes in the honey (as the tank warms or cools during the session), with pump wear over time, or with viscosity changes as different layers of a settling tank are drawn down. Spot-checking catches drift before it becomes a compliance issue.

Jar rhythm. In manual filling, establish a consistent rhythm for jar positioning. Hesitation and variable positioning introduce timing variability that affects fill accuracy. A smooth, predictable motion — position, fill, move — is faster and more accurate than a stop-start approach.

Manage the honey temperature actively. In long sessions, honey in the tank will gradually cool (or warm, depending on your room temperature). If the room is cold, the honey becomes progressively more viscous during the session and dosing drift upwards is common. If the room is warm, the reverse occurs. Monitoring tank temperature once per hour and adjusting the dosing setting accordingly maintains consistency across a long run.

Many filling workflows are optimised around the filling machine while capping and labelling — the downstream steps — create the actual bottleneck.

Signs that capping is your bottleneck: filled jars accumulate in a queue waiting to be capped; you finish filling and spend another hour capping. Signs that labelling is the bottleneck: capped jars accumulate waiting for labels; the labelling step takes disproportionately long relative to the fill volume.

Workflow optimisation means balancing the throughput of each step. If your filling machine can fill 400 jars per hour and your capping routine handles 150 per hour, you don’t need a faster filling machine — you need a better capping workflow, a second person at capping, or a semi-automatic capper.

Production records serve compliance purposes (traceability, weight declaration), but they also serve as a workflow optimisation tool if you use them that way.

For each filling session, note:

• Date and honey variety/batch
• Honey temperature at start and end
• Jar format and target weight
• Confirmed dosing setting
• Total jars filled
• Any anomalies (dosing drift, maintenance actions, product changes)

Over a season, this record reveals patterns: which varieties consistently require longer calibration, which jar formats have the most weight variation, which sessions produce the most consistent results. These patterns point directly to where further optimisation effort is warranted.

Workflow optimisation is not about dramatic changes — it’s about removing small inefficiencies that compound across a season. A thirty-second improvement in the jar-positioning rhythm, applied across 400 jars per session and ten sessions per season, is 2,000 seconds — more than half an hour. A five-minute reduction in the time spent on each product change across eight variety changes per season is 40 minutes.

None of these improvements require new equipment. They require attention, process discipline, and the willingness to question habits that were formed when the operation was smaller and less systematic.

When you have genuinely optimised the workflow around your current equipment and it’s still the bottleneck — that’s the right moment to consider equipment expansion. Not before.

→ For the process fundamentals every workflow builds on: How to Fill Honey Correctly

→ For guidance on equipment that supports rather than constrains your workflow: How to Choose the Right Honey Filling Machine