1. Harvesting at the right time

1.1 Why the timing of the harvest determines everything

Objective Understand that the harvest is not a date on the calendar but a decision made on the basis of concrete observations — and that mistakes made at this stage can no longer be corrected downstream.

The honey harvest is often experienced as the high point of the season. It is also the moment when hasty decisions — harvesting too early, mixing supers of uneven maturity, ignoring weather conditions — directly affect the quality of the final product and its long-term stability.

Honey is a living, hygroscopic and sensitive product. Once extracted, it can no longer "ripen" any further. Fermentation, the main spoilage risk, depends directly on the water content at the time of harvest. Honey that is too moist will ferment — no matter how attractive, how well capped or how good the colony it came from.

But honey quality does not depend solely on the right harvest timing. It also depends on a strict separation between what belongs to the honey circuit, the brood circuit and the feeding circuit. Super frames, brood frames or food frames that are not clearly distinguished can compromise the hygienic quality of the product, even if the honey is ripe and properly extracted.

This article follows the beekeeper from the super still on the hive all the way to the closed jar, ready to be sold or given away.

1.2 Recognising ripeness: three tools, a single objective

Objective Distinguish the three methods for checking ripeness, understand what each actually measures — and know how to combine them. Capping, the shake test and the refractometer are not equivalent. They provide complementary information. Only the refractometer measures water content directly.

Capping is the first signal. A frame whose cells are more than two-thirds capped generally contains ripe honey. But this is not an absolute guarantee: during a strong nectar flow, bees may cap honey that is still too moist if the intake is very rapid.

The shake test is a quick check on an uncapped frame. Hold the frame horizontally and give it a sharp downward movement. If droplets of nectar fly out, the water content is too high — do not harvest this frame. If nothing runs, the honey is sufficiently thick.

The refractometer is the only tool that measures water content directly. It must be calibrated before each use, and the measurement must be representative of the load: take samples from several frames of the same super, not only from the nicest-looking ones. A single measurement on a single frame is not representative of the whole super.

Important: a frame may appear "harvestable" from a water-content perspective but still not be admissible for the table-honey circuit if there is confusion with the brood circuit or the feeding circuit. Ripeness therefore does not replace the requirement to keep frames separated.

1.3 The three water-content thresholds: do not confuse them

Objective Clearly distinguish the three reference levels for honey water content in order to make informed decisions at harvest and at the time of sale. Three values circulate in the beekeeping literature. They do not answer the same question and do not apply in the same situations.

Level	Value	What it means
Legal limit (Switzerland)	20 %	Above this level, the honey cannot be placed on the market. It is a line not to cross, not a target to reach.
Label standard (apisuisse)	< 18.5 %	Required for quality programmes with a label. Stable, safe honey under normal storage conditions.
Practical safety target (Agroscope / practice)	< 17.5 %	High-quality honey, very unlikely to ferment, ideal for long-term storage.

Practical point: aiming at 20 % as a harvest target is a common mistake. The legal limit is a line not to cross. In practice, harvesting with a target of below 18 % leaves a real safety margin, not least because honey can absorb ambient moisture during extraction and storage.

1.4 Weather window and ambient humidity

Objective Understand that honey is hygroscopic — it exchanges water with the surrounding air — and that the weather conditions at harvest time directly influence the final water content. Honey that is well ripened in the hive can see its water content rise at harvest if conditions are unfavourable. This risk is often underestimated.

Honey is hygroscopic: exposed to moist air, it absorbs water. Open frames in an environment with high relative humidity — while removing supers, during transport, or in an uncontrolled extraction room — can see their water content rise measurably.

A few practical benchmarks:

• Avoid harvesting during or just after a prolonged period of rain.
• Do not leave extracted frames exposed to open air longer than necessary.
• Work in an extraction room that is as dry as possible: a relative humidity below 60 % is a reasonable target.
• Close supers and containers as soon as possible.

The time of day can also matter: late morning on a dry, sunny day often corresponds to a lower relative humidity than early morning or evening.

1.5 Clearing the bees from the supers: three methods

Objective Present the three main methods for clearing the bees from supers, with their advantages and constraints, in order to choose the one that fits the situation. No method is universally superior. The right choice depends on the number of colonies, the available time, the weather and the activity of the bees.

Method	Advantages	Points to watch
Clearer board (placed the day before)	Little stress for the bees. Super almost empty the next day. Minimal direct handling.	Requires two visits to the apiary. In humid weather, or if the supers stay long outside the hive's microclimate, the frames may pick up moisture from the ambient air. Do not leave in place for more than 24 hours.
Brushing off or shaking frame by frame	Very selective: allows harvesting only the ripe frames. A single visit is enough.	More handling, more disturbance. Greater risk of robbing if frames remain exposed. Requires experience and speed.
Blower	Fast on large operations. Effective.	Additional equipment. More disturbance at the apiary. Less suited to small operations or apiaries close to dwellings.

Additional point of vigilance: when removing frames, avoid any confusion between super frames, brood frames and food frames. A super destined for harvest must stay within a clean, distinct and clearly identifiable circuit. Only supers without brood are harvested and extracted.

In all cases: cover removed supers without delay, avoid leaving frames in the open air and manage the risk of robbing, especially during dearth.

1.6 Transport and temporary storage of supers

Objective Prevent properly harvested supers from losing quality between the apiary and the extraction room. Between the moment the super leaves the hive and the moment the frames enter the extractor, several classic mistakes can compromise an otherwise well-ripened honey.

Common mistakes to avoid:

• Leaving supers exposed to the sun in a closed vehicle: the wax of the frames can soften and the honey degrades with heat.
• Storing supers in a damp room or close to strong-smelling products: honey absorbs odours and moisture.
• Waiting several days before extracting: the longer the wait under uncontrolled conditions, the greater the risks.
• Stacking open supers without a lid: a direct invitation to robbing and to moisture pick-up.
• Transporting or storing super frames together with brood frames or food frames: this blurs the separation of uses and increases the risk of misallocation, soiling or contamination.
• Using the same trays, boxes, crown boards or transport surfaces for frames intended for honey and then for frames from the brood circuit without cleaning in between.

Practical rule: extract the frames on the day of the harvest or the following day at the latest, in a clean, dry, closed extraction room. Frames still warm from the hive are easier to process: the honey is more fluid, which facilitates extraction and filtering.

1.6.1 Strictly separate the honey circuit from the brood circuit

Objective Show that contamination prevention starts at the apiary, before extraction, with a clear separation between the material destined for honey, that of the brood and that of feeding. Honey can be harvested at the right time, with a good water content, and still be problematic if the circuits are not kept rigorously separate.

Basic principle. The honey circuit must remain distinct from the brood circuit and the feeding circuit. In practice this means that only super frames without brood are harvested and extracted, and that any confusion as to their destination is avoided during handling, transport, temporary storage and extraction.

Frames that have contained brood. A super or frame that has contained brood should not be returned indiscriminately to the table-honey circuit. Once a frame has changed use, it must be identified as such and handled according to the logic of the wax circuit or the brood circuit, not as an ordinary harvest frame.

Feeding. Honey destined for harvest must not be exposed to any risk of transfer of feeding sugar. Feeding periods, quantities distributed and the end of uptake must be kept under control and, ideally, recorded. Supers intended for honey are only replaced after feeding with a sufficient safety margin.

Practical organisation. Simple cues prevent many mistakes: distinct marking of supers and trays, separate storage zones, a clear order of work in the extraction room, and cleaning of tools or surfaces whenever they have been used for frames from another circuit.

1.7 Special cases according to honey type

Objective Flag situations in which the standard harvesting logic must be adjusted, especially for rapidly crystallising honeys or honeys with particular compositions.

Rapeseed (Brassica napus)
Rapeseed honey crystallises very rapidly — sometimes within a few days after harvest — and can start to crystallise in the cells even before being extracted. It is essential to harvest as soon as the honey is ripe, without waiting. Any delay risks making extraction difficult or even impossible on some frames.

Forest honeys and honeydew
Forest honeys often have a higher mineral content and greater viscosity. Crystallisation is usually slower, but the risk of melezitose must be known: some honeydew honeys contain a high proportion of melezitose, a sugar that can completely block the cells. Close monitoring and very rapid extraction are necessary, before crystallisation in the cells makes centrifugation impossible.

Spring honeys (dandelion, fruit trees)
These honeys often have a high glucose content and a rapid crystallisation comparable to rapeseed. Monitor ripeness closely and do not leave the frames on the hive beyond what is necessary once the flow has ended.

1.8 Summary — Harvesting at the right time

The harvest is a decision, not a date. It is made on the basis of concrete observations, under good weather conditions and with the right tools. Mistakes made here cannot be corrected downstream.

Control point	What to check
Frame ripeness	Capping ≥ 2/3, negative shake test, refractometer measurement
Target water content	Practical target < 18 %; 20 % is a legal limit, not a goal
Weather conditions	Dry weather, low ambient humidity, avoid after a long rainy period
Method for clearing the bees from the supers	Adapted to the situation; supers covered without delay
Separation of frames and circuits	Harvest and extract only super frames without brood; do not mix super frames, brood frames and food frames
Transport and storage	No excessive heat, no exposure to moist air, extract quickly
Honey type	Rapeseed, melezitose and spring honeys require harvesting and extraction without delay

2. Extracting and controlling quality

2.1 Preparing the extraction room: hygiene, materials, temperature

Objective Set up a workspace that protects honey quality from the very first contact — even before the frames are uncapped. The extraction room does not need to be a laboratory. But it must meet a few basic requirements that directly determine food safety and the sensory quality of the product.

Bee-tight. The room must be closed to bees throughout the entire work. An open window or an ajar door is enough to trigger robbing that is hard to control — and to introduce unwanted contaminants.

Surfaces and materials. Only food-grade materials are admissible in contact with honey: stainless steel, glass, certified food-grade plastic. Unprotected metals (zinc, copper, iron) react with the acidity of honey and can alter its colour, taste and composition. Cracked or scratched containers are difficult to clean properly and should be replaced.

Cleanliness and drinking water. All equipment must be clean and dry before use. Cleaning is done with drinking water. Residual moisture in a poorly dried container is a direct risk for the honey's water content.

Ambient temperature. An extraction room at 20–25 °C allows the honey to remain fluid enough to be extracted, filtered and decanted correctly. Below 18 °C, viscosity rises, extraction is less complete and filtration slows.

Odour neutrality. Honey absorbs odours. An extraction room that smells of diesel, household products, paint or pets is a problem room. Air out in advance, then close before starting work.

Separation of circuits. The extraction room must also be thought of as an organised space. Supers and frames destined for honey should not indiscriminately share the same zones, trays, tools or work surfaces as material from the brood or feeding circuit. When material separation is not possible, a strict order of work and intermediate cleaning become mandatory.

2.2 Uncapping: methods and wax management

Objective Open the cells efficiently without damaging the combs unnecessarily, and treat the cappings wax for what it is: a raw material of great value. Uncapping is the first technical step of extraction. Careful work reduces the load on the filters, limits honey losses and preserves wax quality.

The tools. The uncapping knife — whether cold, heated in hot water or electrically — remains the reference for clean work on regular frames. The uncapping fork is useful for irregular or slightly sunken areas. The key is to cut as shallowly as possible: the objective is to open the cells, not to remove a layer of comb.

Common mistakes. Cutting too deeply brings wax fragments into the honey and weakens the comb for the following seasons. Working with a cold tool on viscous honey tears the wax off rather than cutting it. A slightly warmed knife — not burning hot — glides better and causes less damage.

Cappings wax. This is the highest-quality wax produced by the colony — white, little contaminated, rich in value. It should not be discarded or mixed with old wax. Letting it drain in an appropriate tray allows the residual honey to be recovered before processing it separately. This drained honey can be added to the batch if its water content is satisfactory, or set aside for a different use.

Additional point of attention. Uncapping does not correct a sorting error. Frames from the wrong circuit do not become admissible for table honey simply because they have been neatly uncapped. The sorting of supers and frames must therefore be done upstream, before entering the extraction room.

2.3 Extracting: managing the centrifugation

Objective Extract the honey completely and gently, adapting speed and method to the type of extractor and the nature of the honey.

Tangential or radial extractor? In a tangential extractor, frames are placed perpendicular to the axis of rotation. One face is extracted, then the frames are turned to extract the other. In a radial extractor, frames are arranged like the spokes of a wheel and both faces are extracted simultaneously. The radial is faster for large quantities; the tangential is often more accessible for small operations and works well with frames of various sizes.

Controlling the speed. Whatever the machine, the rule is the same: ramp up the speed progressively. A sudden start on loaded frames causes imbalances and can break the combs, especially on thin foundation or partially crystallised honey. For a tangential extractor, a first pass at moderate speed on the exposed face, before turning and extracting completely, prevents the weight of the other face from deforming the comb.

Temperature and fluidity. Frames still warm from the hive extract much more easily than frames that have cooled down. If the supers have been stored overnight, warming them moderately to 25–30 °C before extraction improves the yield. During extraction and preparation of the supers, stay at 35 °C maximum if possible: beyond that, one moves away from the quality framework recommended to preserve the natural characteristics of the honey as well as possible.

Balancing the load. A poorly loaded extractor vibrates, wears out prematurely and can damage the frames. Always load symmetrically — even number of frames, equivalent weight on both sides.

Batch traceability. When several supers or lots are extracted on the same day, keeping a clear separation logic remains important: do not, for convenience, mix clean and well-identified supers with material of uncertain origin or from another circuit.

2.4 Filtering and decanting

Objective Remove coarse particles (wax, debris) while retaining the honey's natural components — especially pollen — and allow time for air bubbles to rise before bottling. Filtering does not mean sterilising. A table honey must keep its pollen and its natural components. Filtration has the sole aim of removing visible impurities introduced by the process.

Mesh size. Swiss regulation sets a lower limit of 0.2 mm (200 µm) for the sieve. Below this mesh size, part of the pollen may be retained, which is not consistent with the logic of a table honey. In practice, a double honey strainer (coarse mesh + fine mesh, both above 0.2 mm) placed directly under the extractor is enough for clean work.

Do not force filtration. Pressing the honey through a saturated filter to speed things up introduces air bubbles and can mechanically fracture wax particles. It is better to change or rinse the filter regularly during the work.

Decanting in a settling tank. After filtration, the honey usually rests 24 to 48 hours in a settling tank — a flat-bottomed vessel with a bottom tap. During this time, air bubbles and the last light particles rise to the surface as a foam. This foam must be completely removed before bottling. Cover the settling tank for the entire decantation period: an open honey absorbs ambient moisture and odours.

Decanting temperature. Around 20–25 °C, decantation is generally effective. Below 18 °C, the honey becomes too viscous and particles rise too slowly. Above 30 °C, decantation is faster, but prolonged exposure to this temperature increases the risk of quality degradation.

Keep in mind. Filtration does not correct contamination linked to a poor choice of frames or to a confusion between circuits. It removes coarse debris; it does not "purify" a lot that was poorly composed to begin with.

2.5 Checking water content after extraction

Objective Measure the water content of the batch after extraction to decide on an informed basis — and not discover a problem at bottling time. The post-extraction measurement covers the entire batch, not an isolated frame, and determines the rest of the process.

Measuring correctly. Take samples at several points in the settling tank (surface, middle, bottom) and homogenise them before measuring. The refractometer must be calibrated and the measurement taken at 20 °C or corrected according to the table supplied with the instrument.

Interpreting the result.

Measured water content	Recommended decision
< 17.5 %	Excellent. Continue as usual.
17.5–18.5 %	Good. Store with care, bottle rapidly, avoid any additional moisture input.
18.5–20 %	Borderline. Keep separate, use first, do not mix with other batches. Watch for signs of fermentation.
> 20 %	Not marketable. Do not sell. Keep for own use or processing (mead).

Never mix a borderline batch with a dry batch to improve the average. This dilutes the risk without eliminating it.

Likewise, do not mix for the sake of convenience a clean and well-identified batch with a batch whose origin, circuit or previous frame use is uncertain. The quality of a lot cannot be recovered by dilution or averaging.

⚠ Post-harvest moisture reduction: a last resort It is technically possible to reduce the water content of an overly moist honey after extraction by leaving it open in a dehumidified room. This approach can help out in an exceptional situation. It must not become routine, for two important reasons. First, it does not correct the cause of the problem — honey harvested too early. Second, Swiss quality programmes frame or restrict this type of practice: check the applicable regulations before using it for honey destined for sale. The only reliable solution remains harvesting at maturity.

2.6 Summary — Extraction and quality control

Extraction is a chain. Each step determines the next. A problem detected too late — water content too high, odour contamination, insufficient filtration — is difficult or impossible to correct without degrading the product.

Step	Critical control point
Extraction room	Clean, dry, bee-tight, odour-neutral, food-grade materials
Separation of circuits	No confusion between honey, brood and feeding circuits; clean tools and surfaces
Uncapping	Cut shallowly, collect cappings wax separately
Centrifugation	Progressive speed ramp-up, stay at 35 °C maximum if possible during extraction
Filtration	Mesh size ≥ 0.2 mm, do not force, change the filter when saturated
Decantation	Generally 24–48 h covered, 20–25 °C, skim fully before bottling
Water content measurement	Calibrated refractometer, homogeneous sample, decision per batch

3. Bottling, labelling and storage

3.1 Crystallisation: understanding to master it

Objective Understand why honey crystallises, what determines speed and texture — and how to use this phenomenon to one's advantage rather than just putting up with it. Crystallisation is not a defect. It is a natural process, a sign of unheated, untreated honey. The problem is not crystallisation itself but uncontrolled crystallisation.

Honey is a supersaturated sugar solution. Crystallisation occurs when glucose molecules separate from water and organise into crystals. Its speed depends on three main factors:

Sugar composition. A glucose-rich honey (rapeseed, dandelion, spring) crystallises rapidly — sometimes in a few days. A fructose-rich honey (acacia, forest honey) stays liquid much longer. The glucose/fructose ratio is determined by the floral source and cannot be changed after harvest.

Temperature. Crystallisation is fastest around 14 °C. Above 25 °C, it slows down sharply. Below 5 °C, the process almost completely stops — but resumes as soon as the honey returns to room temperature. Keeping a reliquefied honey in the refrigerator is not a lasting solution.

Crystallisation nuclei. Suspended particles — pollen, micro-bubbles, wax fragments — act as nucleation points. The more there are, the faster the crystallisation and the finer the crystals formed. This principle is used in making creamed honey.

Type of honey	Crystallisation speed	Practical consequence
Rapeseed, dandelion, spring	Very fast (days)	Bottle rapidly or manage creaming without delay
Summer flowers, lime, clover	Moderate (weeks)	Comfortable working window
Acacia, forest honey (without melezitose)	Slow (months)	Can be sold liquid for a long period
Melezitose (some honeydew honeys)	Extremely fast and hard	Close monitoring, very rapid extraction essential

3.2 Managing crystallisation: liquid, creamed or natural

Objective Consciously choose the desired presentation format and manage the process to achieve it, depending on the type of honey. The final texture of the honey is a decision, not an accident. It must be made early, because the action windows are narrow for some honeys.

Liquid honey. Bottle rapidly after decantation, before crystallisation begins. Suits naturally stable honeys (acacia, forest). For rapidly crystallising honeys, this option is only viable in the short term: the honey will become solid in the jar at the customer's. It is useful to inform the customer clearly.

Creamed honey. This is the reference technique for rapidly crystallising honeys. It consists of seeding the still-fluid honey with about 5–10 % of a quality creamed honey (seed honey with very fine grains), then stirring regularly for several days at a temperature of 14–18 °C. The honey is bottled the moment it reaches the desired consistency — neither too liquid nor too firm.

Producing creamed honey: the key steps Choose the right time to seed. The honey must still be fully liquid but cooled to about 25–30 °C. A honey that is too warm slows crystallisation; a honey that has already partly set no longer mixes homogeneously with the seed. Use a quality seed. The seed honey must be very finely crystallised, without lumps or a dominant aroma. The recommended proportion is 5–10 % of the total batch weight. In practice, the ideal is to keep a small jar of one's own creamed honey from a previous successful batch for this purpose. Failing that, the seed can be obtained from a trusted beekeeper or, as a last resort, a creamed honey of well-known good quality can be chosen from the market. The key is to check that it has a very fine crystallisation, a satisfactory water content and no sign of fermentation. A coarse seed produces a grainy texture in the finished product. Mix carefully without incorporating air. Stir slowly and regularly, usually once or twice a day, with a clean utensil. Avoid whipping: air trapped in the creamed honey whitens the surface, promotes foam formation and harms the appearance of the finished product. Maintain a stable temperature of 14–18 °C. This is the optimal range for fine and rapid crystallisation. Below about 10 °C, crystallisation becomes markedly slower; above 20 °C, it often becomes more irregular. Check consistency daily. The honey is ready to be bottled when it has the texture of a soft paste — it spreads without flowing and holds on the spoon. At this stage, transfer without delay: a honey that has become too firm in the settling tank is difficult to bottle neatly. Do not go past the point of firmness. A creamed honey that is too firm in the working container forces you to reheat it to transfer, which harms the final texture. In practice, it is better to bottle slightly before the point of firmness than after.

Natural crystallisation. Some honeys can be left to crystallise freely, without intervention. The texture is then less predictable, but the product remains perfectly sound. This approach suits personal use or a customer base that values the natural character.

What not to do: heat an already crystallised honey above 40 °C to make it liquid again. This degrades the enzymes, raises HMF and alters the aromatic profile. A gentle, short, controlled reliquefaction at 35–40 °C is acceptable — but must not become systematic.

3.3 Bottling

Objective Fill containers cleanly, at the right time, avoiding the mistakes that compromise presentation or conservation.

Containers. Glass preferably — neutral, impermeable, reusable and inert. Food-grade plastic is admissible but must be certified for contact with foodstuffs. Lids must seal hermetically.

Dry jars. Rinse the jars with drinking water and let them dry completely before use. Steam sterilisation — for example in a steam oven — can be ideal from a hygiene standpoint, provided the jars are then perfectly dry. A drop of water at the bottom of a jar represents a significant localised moisture input.

Timing according to target texture. For liquid honey, fill as soon as decantation is complete. For creamed honey, fill when the texture is reached but still soft. A honey that has already firmed up in the settling tank is very difficult to transfer without incorporating air.

Temperature of jars and honey. A large temperature difference between honey and jar causes condensation inside. Let the jars acclimatise to room temperature before filling them.

Close immediately. Every minute a filled jar stays open is a minute of moisture absorption. Close the lids without delay and check the seal.

Order and cleanliness. Bottling must remain the last step of a clean circuit. Avoid storing jars, lids or bottling utensils in damp, dusty places or places exposed to foreign odours.

3.4 Labelling

Objective Recall the mandatory statements under Swiss regulations and point to the reference resource for complex cases.

Mandatory statements on each jar sold (Swiss food law) Specific designation: "Honey" or a more precise designation (blossom honey, forest honey, etc.) if the conditions are met. Country of production: to be stated if it does not already clearly emerge from the designation or the address (e.g. "Swiss honey", "Produced in Switzerland" or an explicit Swiss address). Full name and address of the producer or the packer. Net weight (in grams or kilograms). Best-before date: "Best before end of …" Lot number (preceded by "L") for traceability. To be avoided: misleading statements ("100 % natural", "pure"), unauthorised health claims, varietal designations without sufficient basis. → For details and particular cases: consult the apisuisse practical guide "Labelling honey correctly" and the dedicated ApiSavoir article.

3.5 Storage

Objective Preserve the honey's qualities all the way to the consumer, avoiding the mistakes that insidiously degrade an otherwise well-harvested and well-extracted product.

Basic conditions. Honey is kept in a cool (ideally 10–15 °C), dry, dark place, hermetically closed. These conditions are not difficult to meet — but they are often neglected.

Light and heat. Exposure to light and high temperatures accelerates aroma degradation, discoloration and HMF formation. Heat and light are the two main enemies of storage quality; transparent jars placed in a sunny display are particularly exposed.

Moisture. A jar that is not sufficiently airtight can let moisture in, especially in a damp room. Hobbocks must be stored lid-up, checked regularly and kept in a dry place.

Stock rotation. Apply the "first in, first out" principle. Older honeys must leave before new harvests. Any sign of fermentation (bubbles, sour smell, bulging lid) requires removing the lot from sale immediately.

Large containers. Hobbocks must be hermetic, in food-grade material, labelled with lot number and harvest date. Never top up a new-harvest honey into a hobbock already opened from a previous season.

Also avoid slow contaminations. Even when well closed, a poorly managed stock can be problematic if the containers are kept close to odorous substances, paints, fuels, household products or other sources of foreign odours.

3.6 Traceability and minimum documentation

Objective Set up a simple but effective traceability system that makes it possible to trace the origin of a problem if a customer raises an issue or a control takes place.

Traceability does not require a complex system. For a small-scale beekeeper, a simple register is enough, provided it makes it possible to link each jar sold to a precise batch.

The useful minimum per batch:

• Harvest date and apiary of origin
• Type of honey (blossom, forest, rapeseed…)
• Measured water content (value and date of measurement)
• Lot number (shown on the label)
• Quantity produced and packed
• Bottling date
• Useful observations on the harvest circuit in case of any particular event: recent feeding, change of use of certain frames, separation of risk batches, or any information useful to rule out any confusion between honey, brood and feeding

This register makes it possible, in the event of a complaint or a control, to immediately retrieve the information linked to a specific lot. It is also a useful personal tool for improving one's practice from one season to the next.

3.7 Overall summary — From super to jar

This article has followed the honey from the super still on the hive to the closed jar. The critical points can be summarised in six principles:

Principle	Why it is essential
Harvest only ripe honey	Water content at harvest determines everything — fermentation, conservation, quality
Strictly separate the honey circuit from the brood and feeding circuits	Honey quality is protected first of all by a clear separation of frames, supers, tools and batches
Work in a clean, dry extraction room	Hygiene and control of ambient humidity protect the product at every stage
Do not exceed 35 °C during extraction	Beyond that, one moves away from the recommended quality framework to preserve the natural characteristics of the honey as well as possible; a short, occasional reliquefaction remains possible up to 40 °C
Manage crystallisation according to honey type	Texture is a decision, not an accident — act early, especially for fast-crystallising honeys
Seal hermetically and store correctly	Honey absorbs moisture and odours — every step after extraction must protect it
Document each batch	Traceability, correct labelling and continuous improvement rely on a minimum register kept up to date

 

---

See also:

• Mastering the water content of honey
• Refractometer calibration
• Honey crystallisation
• Honey labelling
• Optimising good beekeeping practices for honey production
• Best practices in beekeeping (meta-study)