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CHAPTER 1
BEEKEEPING AS A TREASURE BOX OF EXPERIENCES: UNLOCKING THE HIVE: WHY BEEKEEPING IS MORE THAN JUST HONEY

In the first chapter, readers are introduced to the characteristics of the experience economy and gamification, alongside key authors and illustrative examples. We explore various experience categories and show how beekeepers have numerous opportunities to offer their customers meaningful experiences beyond selling bee products — unlocking additional sources of income and connection, enhance the willingness to diversify activities and income sources.

The goal of this module is to help beekeepers, gastronomy professionals, chefs, baristas, and even consumers understand what the experience economy and gamification really mean — and how these concepts can be applied in their professional or personal lives.

We want to inspire beekeepers to view their activities and products through a new lens: not just as producers, but as experience creators. If they have the right conditions — or the opportunity to create them — we encourage them to take the first step toward transforming their apiaries into immersive, sensory-rich spaces that support short food supply chains. This is also a way to diversify and adapt to climate change, economic pressures, and shifting consumer needs.

INTRODUCTION AND PROBLEM STATEMENT

Since the late 2010s, signs of a general crisis have emerged in the beekeeping sector. Adapting to climate change is increasingly difficult for both bee colonies and their keepers. The widespread presence of adulterated honey, rising production costs that are not matched by producer prices, and the ongoing fight against bee diseases have forced many beekeepers to abandon their profession.

The uncertainty of honey procurement, the dominance of a single buyer, long purchasing pauses by processors, and below-cost prices have created a challenging environment for beekeepers. In this system, honey is treated as a bulk commodity. It is blended from various beekeepers and repackaged by bottling companies into commercial products that often barely resemble the original honey as it was in the hive.

As a result, more and more beekeepers are seeking direct sales opportunities — eliminating middlemen to maximize product value and ensure authenticity. Direct selling fosters regular market and customer contact. The beekeeper adds their name and face to the product, aiming to build their own brand.

Honey is a ‘raw product’, extracted from the comb without altering its original composition. Beekeepers often say, ‘nothing should be added or taken away’. It is considered a trust-based product. Buyers don’t just purchase a healthy item — they often build decade-long relationships with the producer.

Considering all this, is there – or can there be – another path for beekeepers? Is it possible to move beyond mere raw material production and the difficulties of selling? In addition to direct sales, can other forms of value creation be developed? Thinking in a broader framework, is it possible to take all the values of beekeeping into account during the sales process?

The answer may lie in exploring value creation beyond direct sales—by embracing all the unique aspects of beekeeping during marketing. One option is the experience economy, where activities like gamification and sensory engagement create memorable interactions for visitors.

Building on this, our aim is to introduce a new perspective and way of thinking by presenting the characteristics of the experience economy, the concept of gamification, and the integration of honey and beekeeping into the experience economy. In this regard, there is a great deal of doubt, concern, and uncertainty among beekeepers. Therefore, it is worth considering the transformation of the wine sector as an example, which already 35 years ago managed to shift from mass production to a development direction focused on quality and experience.

SALES CHANNELS AND CUSTOMER RELATIONS IN BEEKEEPING

For beekeepers, knowing the different ways honey can be sold is key to building a successful and sustainable business. The choice of sales channel has a direct impact on income, customer relationships, and how much control the beekeeper has over pricing and branding. Some beekeepers rely on direct sales—selling honey at markets or from home—while others sell through local shops, wholesalers, or supermarkets. Each option has its advantages and limitations. It’s also becoming more common to sell through experience-based channels, where customers visit the apiary and take part in tastings or tours.

Exploring these different paths helps beekeepers find the best fit for their goals, increase profits, and connect more closely with consumers. For a deeper understanding the topic of experience economy, gamification is presented and linked with beekeeping, honey usage and diversification.

THE CONCEPT AND BACKGROUND OF THE EXPERIENCE ECONOMY

In today’s world, experiences are central to how people live, consume, and make decisions—from shopping and travel to health and entertainment. This shift marks the rise of what scholars call the experience society and experience economy, where people seek not just products or services, but memorable, emotional, and meaningful encounters.

This idea has roots in humanistic psychology. Thinkers like Maslow (peak experiences, 1962) and Csíkszentmihályi (flow experiences) described moments that lift individuals out of everyday life. These experiences—though rare—are deeply rewarding and surprisingly similar across different cultures and backgrounds (Csíkszentmihályi, 1990).

However, not all experiences need to be transformative. Everyday experiences, even small ones, add up to a sense of well-being and happiness.

As early as 1970, Alvin Toffler predicted this shift. He spoke of a new kind of economy focused on psychological satisfaction rather than material goods (Toffler, 1970). Decades later, Richard Florida noted that lifestyle quality is increasingly judged by the richness of experiences, not by possessions (Florida, 2002).

A major breakthrough came from Pine and Gilmore (1999), who argued that a new economic phase had begun: one where businesses create and sell experiences rather than just services. In this model, companies “stage” experiences—like theatre—for their customers, who become part of the performance (Pine and Gilmore, 1999).

While the American approach emphasizes profit, European researchers like Boswijk, Thijssen, and Peelen focus more on personal meaning and learning. They highlight concepts such as co-creation and self-direction, where the individual is not a passive consumer but an active participant in shaping the experience (Boswijk et al., 2007).

What is an experience?

The concept of experience is interpreted differently across fields like psychology, sociology, tourism, and marketing. Some define it as an external event, while others focus on how individuals internally process and interpret it. Both perspectives matter—experience is both what happens and how it’s lived.

An experience involves emotions, thoughts, impressions, and personal engagement. It can be triggered by sights, sounds, memories, or interactions, and is shaped by one’s mindset and past. Experiences can be fleeting or lifelong, solitary or shared.

Experience also has two dimensions:

• The emotional (feeling-based), more common in everyday use.
• The cognitive (meaning-based), which reflects learning and insight. In English, “experience” usually refers to the cognitive kind, while emotions are specified (e.g. “emotional experience”). In Hungarian and German, different words are used for these two dimensions.

These two sides are always connected. In English, “experience” often means something meaningful or cognitive, while in Hungarian or German, two different words may be used to separate emotional and cognitive meanings. Their relationship is shown as a continuum—with emotion on one end, and knowledge on the other.

The figure illustrates how emotional and cognitive elements of experience overlap and interact, forming complex, personal experiences.

Some experiences are especially powerful. Maslow called them peak experiences, and Csíkszentmihályi described them as flow: full involvement, joy, and focus in the moment. Stephanie Bruneau, a beekeeper, described working with bees in similar terms—calm, concentration, and a deep sense of peace (Bruneau, 2017).

After years of research and interviews, Csíkszentmihályi identified eight key characteristics that often appear when someone enters a flow state. Even one of these may be enough to trigger it:

1. Clear goals – the task is well defined and understood, moment by moment.
2. Immediate feedback – we see the result of our actions right away.
3. Balance between challenge and skill – the task is demanding, but our abilities match it.
4. Deep concentration – we’re so focused that the boundary between self and activity fades.
5. Presence in the moment – we forget past and future, only the now matters.
6. Sense of control – we feel capable of handling the situation.
7. Altered time perception – time seems to speed up or slow down.
8. Ego fades – we forget ourselves and our surroundings; the activity takes full focus.

GAMIFICATION: TURNING ACTIVITIES INTO EXPERIENCES

Gamification—the use of game elements in non-game settings—has become a popular tool in education, business, health, and marketing. While the term only became widely used in the 2000s, the idea behind it is much older. Humans are naturally drawn to play, and games have long been used to teach and engage people. For example, chess has trained strategic thinking for centuries, and in 1812, the Prussians created the Kriegsspiel war game to develop military strategy. In early childhood education, Fröbel promoted learning through play in kindergartens as early as the mid-1800s.

Gamification is effective because it taps into core human drives—like curiosity, competition, achievement, and social connection. It enhances motivation, engagement, and learning by turning otherwise routine tasks into more enjoyable and rewarding experiences.

The key components of gamification are:

• Game dynamics – the rules and structure (like in a board game)
• Game mechanics – the tools used to engage participants: points, levels, badges, leaderboards, challenges, and virtual rewards

Gamified systems often use progression and feedback to keep people engaged, such as earning a badge after completing a task or unlocking a reward after reaching a new level. These elements are especially powerful when they support intrinsic motivation—doing something for its own enjoyment—and help users enter a flow state, as described by Mihály Csíkszentmihályi.

Gamification also draws from behavioral psychology. The idea of the Skinner Box (it was an experiment where animals (usually rats or pigeons) received a reward — like food — when they pressed a lever), created by psychologist B.F. Skinner, helps explain why rewards (even small ones) can reinforce behavior. In gamification, rewards like stickers, points, or status symbols serve a similar role—motivating people to repeat actions and stay involved.

Gamification can be used in many contexts:

• Education: to boost learning and attention
• Marketing: to encourage customer loyalty
• Health & wellness: to support healthy habits
• Workplaces: to improve productivity, collaboration, and team spirit

It can also address broader issues, such as user engagement, knowledge retention, recruitment, and even customer or voter participation.

Practical examples show its impact. One of the earliest commercial uses of gamification was the S&H Green Stamps program in 1896, where customers collected stamps when shopping and exchanged them for gifts. An example comes from Hungarian beekeeper Péter Koós, who used a sticker-based loyalty program in the 1990s and early 2000s. Each honey jar came with a collectible dot; after collecting ten, customers could choose a reward, such as socks. As he shared, one customer admitted: “I don’t even like honey, but I keep buying it for the socks!” (Kovács, 2017:38).

Gamification doesn’t have to be digital—it can be as simple as a classroom game, a point card, or an interactive tasting experience at a farm. What matters is that it turns everyday actions into something meaningful and memorable.

In a world where people seek more than just products or services, gamification offers a way to provide engaging, enjoyable, and value-added experiences—which is exactly what the experience economy is all about.

EXPERIENCE AS ECONOMIC VALUE

Experience adds significant economic value. As shown by Pine and Gilmore (1999) in The Experience Economy, the same product can be priced at very different levels depending on how it is delivered. For example, coffee costs only a few cents as raw beans, about 50 cents when brewed and served, but can reach several euros in a premium café or a unique setting—where what the customer pays for is not just coffee, but the experience.

CHAPTER 2
MEET THE BEES: A Friendly Introduction to Bees, Honey, and the Art of Beekeeping

This textbook focuses on the European honeybee (Apis mellifera), although it’s important to note that the Asian honeybee (Apis cerana) is an equally important pollinator in its native regions. As wild pollinators populations decline, the role of managed honeybees in pollination becomes increasingly significant—making their protection and population support more important than ever. However, due to human impact on the environment, honeybees can hardly survive independently anymore. Nowadays, a significant part of the population heavily depends on beekeepers.

Pollination: A Vital Public Good

Pollination is a vital public interest—without it, Earth’s biodiversity as we know it could not be sustained. Pollinators, primarily insects like bees, wasps, ants, butterflies, beetles, and flies, as well as some vertebrates—and even creatures like snails, rodents, and reptiles—transfer pollen to help plants reproduce (Kovács-Hostyánszki, 2018).

Biodiversity—and with it, ecological stability—relies on this process. Many plants have evolved to depend on specific pollinators; some rely exclusively on a single species. If that species disappears, the plant may also face extinction.

Insect pollination benefits both parties. Through evolution, plants and insects have adapted to each other. Even self-pollinating plants produce better yields when visited by insects, increasing genetic diversity and resilience. Unlike wind pollination, insect pollination is more targeted and efficient, which is why some plants produce nectar to attract pollinators.

Among pollinators, bees (genus Apis) are the most significant in temperate regions. Both wild and domesticated bees visit a wide range of flowering plants and play a key role in sustaining ecosystems.

Metamorphosis and development of bees

Every bee starts life as a tiny egg laid by the queen into a wax cell. After about three days, the egg hatches into a larva. Nurse bees feed the young larva with royal jelly at first, then switch to a mix of pollen and honey—unless the larva is being raised to become a queen. In that case, she gets royal jelly only, and lots of it!

After around five days (or six for drones), the larva’s cell is sealed with wax. Inside, the larva spins a cocoon and transforms into a pupa. A few days later, a fully developed adult bee chews its way out of the cell and joins the hive.

The type of bee depends on what kind of egg the queen laid:

• Fertilized eggs become workers or queens.
• Unfertilized eggs develop into drones.

Worker bees grow in regular-sized cells, while queens and drones need larger, specially built ones.

What happens if the queen is lost or needs to be replaced?

If a queen bee disappears or needs to be replaced, the colony starts raising a new queen. They pick a worker larva that is no older than three days, if possible. The worker bees make the larva’s cell bigger and feed it only royal jelly. During this phase, this special food determines the larva’s future, and the larva will become a queen.

When an old or weak queen is going to be replaced or prepared for swarming, the new queen is not chosen from larvae meant to become workers. From the egg stage, she is raised in a special queen cell and fed more generously. They will be the most viable mothers.

How long does it take for a bee to fully develop?

Bees go through complete metamorphosis, changing from egg to larva to pupa to adult. The time it takes depends on the type of bee (Figure 3):

• Queen: 16 days
• Worker: 21 days
• Drone: 24 days

Temperature and cell size can also slightly affect how fast they grow.

The bee family, body structure and functions

Honeybee (Apis spp.) colonies can be seen as superorganisms—complex systems where individuals from overlapping generations work together so closely that their roles resemble the functions of cells in a single multicellular organism.

Honeybees are social insects that can fly and have thin, see-through wings. They don’t have bones—instead, their bodies are protected by a flexible outer covering called chitin, similar to our nails . They’re also covered in tiny hairs. Depending on their type and age, bees can be golden yellow, dark brown, or even almost black.

They have three main body parts: head, thorax and abdomen.

A bee’s head has two antennae, five eyes (two big compound, three small simple), and a long tongue called a proboscis for collecting nectar and glands like hypopharyngeal, salivary or mandibular glands They can’t see red light but can see ultraviolet light, which helps them find flowers. Antennae help them smell, feel vibrations, and sense air movement.

Bees use strong jaws to chew wax and pollen. They can taste sweet, sour, and salty—but less bitter.

The middle part of the body (thorax) holds the wings and legs. Bees have six legs and four wings. Worker bees use their front legs to clean themselves and their back legs to carry pollen.

The back part (abdomen) holds most of the organs. Only female bees (queens and workers) have a stinger. Matted queens use it to lay eggs, while unmatted queens and workers use it like a weapon. Workers also make wax with wax glands located on the underside of the abdomen and use scents to help the hive stay organized. The queen stores sperm in a special sac to fertilize eggs over her lifetime and use pheromons to manage and keep colony in unity.

ABOUT THE BEE SOCIETY: ROLES AND TASKS IN THE HIVE

The structure of bee colonies has fascinated researchers for over two thousand years. A hive functions as a well-organized society made up of distinct castes, each with unique morphology and tasks. It consists of

• one queen – queens lay eggs;
• tens of thousands of worker bees (female) – sterile and do all the cleaning, feeding the young, making wax, guarding the entrance, and collecting nectar, water, propolis and pollen;
• a few hundred drones (males) – drones exist solely to mate.

CHAPTER 3
NECTAR NOTES A BEGINNER’S GUIDE TO HONEY TASTING

History and Current State of Honey Sensory Analysis

We have always been engaged in evaluating products through the phénoménal senses, but only recently has there been a desire to scientifically investigate this subject. Sensory analysis, the scientific discipline that evaluates consumer products (and services too!) through human senses, has a deep-rooted history that traces back thousands of years. While it has only emerged as a formal scientific field in the past century, its origins can be traced back to the practices of ancient civilizations, where taste, smell, touch, sight, and hearing were used to assess the quality and desirability of food, beverages, and other goods. 

In ancient Egypt, Greece, China, and Rome, sensory attributes like taste and smell were crucial for food preparation and trade. Greek winemakers evaluated wine by taste and clarity, and Chinese herbalists used their senses to identify medicinal plants.

The Age of Enlightenment in the 18th century saw scholars like Immanuel Kant and David Hume exploring perception. In the late 19th century, Gustav Fechner, a pioneer of psychophysics, demonstrated that taste and smell could be measured scientifically (Drake and Clark, 2023).

The late 19th century marked the beginning of more structured scientific exploration into sensory perception. Gustav Fechner, a German psychologist, is often credited as one of the pioneers in the study of psychophysics—the relationship between physical stimuli and sensory perception. His groundbreaking work established that human perception of stimuli, such as taste or smell, could be measured and quantified, laying the foundation for modern sensory evaluation techniques.

Sensory analysis gained practical importance during World War II, when military rations were tested for acceptability. Post-war industries adopted and refined these methods using psychology and statistics. Notably, the first scientific text on sensory analysis appeared in Poland in the 1950s, followed by a Japanese publication. However, the widely recognized foundation of the field was the 1965 book by Amerine, Pangborn, and Roessler at UC Davis (Amerine et al., 1965).

Following World War II, sensory analysis began to gain traction as a formal scientific field. The post-war economic boom fuelled the expansion of consumer goods industries, particularly in food, beverages, and cosmetics, prompting companies to seek methods for improving and standardizing product quality. With advances in statistical methods, sensory evaluation techniques became increasingly rigorous and objective. The first known scientific research on sensory analysis came from Poland in the late 1950s, where researchers published what is believed to be the earliest scientific text on the subject. However, the text had limited impact internationally, probably because of the Polish language barrier. Subsequently, a group of Japanese researchers published another significant work, but it too saw little circulation outside of Japan. The first text widely recognized as the cornerstone of sensory analysis, as it is defined today, was published in 1965, edited by Amerine (a winemaker), Pangborn (a sensory analysis expert) and Roessler (a statistician), all from the University of California, Davis (Amerine at al., 1965).

In the 1970s and 1980s, researchers increasingly focused on consumer psychology and behavior, leading to a better understanding of how sensory perception influences consumer choices. Sensory analysis began integrating more sophisticated psychological models, enabling companies to develop products more closely aligned with consumer preferences.

During this period, significant progress was made in deepening the understanding of both the relationship between perceived products and their perceivers, as well as the methods needed to ensure the reproducibility and repeatability of sensory tests as we know them today. The International Organization for Standardization (ISO) developed a set of guidelines and standards for sensory testing, ensuring that sensory evaluation methods were consistent and scientifically valid, and applicable across industries and regions (ISO, 2017). These standards helped to professionalize the field, establishing sensory analysis as a more respected and credible tool in product development.

In the 21st century, sensory analysis has become a multidisciplinary field combining technology, neuroscience, and emotional response studies. Tools like electronic noses and tongues now complement traditional panels, although humans remain irreplaceable due to our perceptual abilities. The field of neurogastronomy explores how sensory signals are processed in the brain (Gordon, 2012).

Importantly for our topic, the first book dedicated to honey sensory analysis was published in 1985 by French researchers Michel Gonnet and Gabriel Vache (Vonet and Vache, 1985), marking a key milestone in applying scientific sensory methods to honey.

Foundations of Honey Sensory Analysis

Honey sensory analysis is the systematic evaluation of honey’s sensory attributes—appearance, aroma, taste, texture, and flavor (Figure 1)—using human senses. It combines both objective and subjective methods to assess the quality, authenticity, and characteristics of different honey varieties. This process plays a crucial role in ensuring that honey meets consumer expectations and legal standards, while also identifying unique features related to its floral sources, processing methods, and geographic origin.

Education programs on honey sensory analysis have been initiated in various countries, all emphasizing honey quality while incorporating unique regional characteristics. Although several honey judge training programs exist worldwide, the number of formal, internationally recognized programs remains relatively small.

Italy is home to one of the most recognized honey sensory training programs globally. This program began in the late 70s, was officially established in 1988, and gained accreditation from the Ministry of Agriculture in 1999 (Italian National Register of Honey Sensory Experts – Albo Nazionale degli Esperti in Analisi Sensoriale del Miele). Known for its rigorous education and certification process, the program trains honey tasters to become certified sensory analysts and judges through a three-level educational system, culminating in a proficiency examination at the third level.

In the United Kingdom, honey sensory training mostly focuses on the smell and taste of ling heather honey as this typical local honey has its own class in shows. Besides that, the primary role of a judge is to authenticate the bee product and eliminate exhibits that do not meet the standard of optical perfection. Each country has its own version of a Show Judge Qualification in the UK and Ireland. The Welsh Beekeepers’ Association has probably the oldest existing education program and offers a specialized program for honey judging (Welsh Honey Judge Program – Wales Honey Judging Qualification) that focuses on sensory evaluation and honey show judging. The program includes both practical and theoretical components designed to train judges for competitions across three different levels (Candidate, Judge, Senior Judge). This system, which is extremely rigorous in terms of both honey quality and its presentation at honey shows, is also taught (and applied) by several universities, associations and institutes in the United States.

The American Honey Tasting Society (AHTS) offers educational courses in honey tasting based on the Italian model. They provide various levels of training and certification to become a honey judge or sensory expert. The courses are led by experts trained in Italy and cover different aspects of honey tasting and judging, expanding the education to include US-specific honeys and honey-derived products (such as mead).

The British Beekeepers’ Association (BBKA) offers a honey judge certification course that trains individuals to judge honey in competitions. This program focuses on the sensory qualities of honey and also includes criteria for evaluating its physical properties and presentation.

France, Spain, and Germany have regional or national sensory education programs tailored to honey quality assessment, often in collaboration with beekeeping associations or universities. Some programs focus on training judges for honey competitions, while others assess honey quality for commercial purposes. Many more experts and countries are showing interest in developing their own “honey sensory expert” system as they increasingly recognise the added value of honey sensory characterization for improving quality and fostering better relationships with clients. 

The Italian BeeSources is offering the accredited Italian certification system to English speakers, both in Italy and abroad, mainly with a “tech-transfer” goal (teaching a method that can be applied to local honeys). This activity, performed in the “Honey Sensory Education” framework, has significantly boosted global knowledge and interest: since 2016, around 250 people from 60 countries have already attended their Level-1 course!

Guidelines for Performing Honey Sensory Evaluation 

In general, anyone can engage in sensory analysis: some people who are more predisposed to it (due to genetic or physical factors, or a natural inclination toward intellectual work), while others may require more training to achieve the same results.

Just like our tissues and bodies, our sense organs also experience progressive deterioration as we age. However, the loss of sensory capabilities with age can be compensated for by the increased experience that the taster gradually gains over the course of their career.

It is also true that certain pathologies and dysfunctions of the body can complicate or even make sensory evaluation impossible. Temporary conditions, such as respiratory system diseases (colds, sinusitis, viral infections, etc.) or issues affecting the mouth (gingivitis, aphthae, caries, etc.), can prevent the perception of taste, smell, and aromas in the usual way. Similarly, imbalances, dysfunctions or particular conditions at the endocrine level (side effects of drugs, thyroid problems, pregnancy, etc.) can also alter sensory perceptions. In such cases, it is advisable to avoid participating in tasting sessions, both to avoid providing biased evaluations and especially to prevent confusion in one’s reference points. 

More serious, typically chronic conditions, prevent some individuals from engaging in this discipline. This includes individuals with recognized anosmia (the inability to perceive all or certain categories of odors) or ageusia (the inability to perceive one or more basic tastes), whether these conditions are congenital or caused by trauma. 

Stimulus processing takes place in the brain, so tasters must also learn (and gradually learn to manage) the psychological conditions that can influence the objectivity of their judgment. Factors such as personal motivation, expectations, states of satiety or hunger, aspects of individual personality (e.g., shyness or exuberance), and others, all impact the taster’s performance. Unlike physical or pathological conditions, which are easier to identify, the recognition and management of psychological conditions require experience. A good taster should recognize when they are in conditions that are not conducive to optimal performance and should, therefore, postpone or refrain from making judgments in those circumstances. 

Modern sensory analysis compensates for the natural variability in individual judgment by utilizing tasting ‘panels’ – groups of individuals who are called upon to express their organoleptic evaluation. Panel members work individually, and only after this do their judgments get combined to form the overall panel evaluation.

The organization of a tasting panel requires certain minimum standards to ensure its proper functioning. These standards cover everything from sample reception to statistical data analysis, including aspects such as the characteristics of the tasting rooms, the preparation of the tasting sheets, the calibration of judges, the anonymization of samples, the organization of the tasting sessions. The requirements for ensuring the rigor and repeatability of tasting sessions are described in ISO manuals (the International Organization for Standardization – ISO Website).

The preparation required of panel members may vary depending on the objectives of the tasting. When evaluating honey, knowing how it is produced is useful but not strictly necessary. The evaluator should focus on the sample that is placed in front of them, without speculating on the sample’s journey from collection to the tasting table. While general training in sensory analysis may suffice for some types of tests, more specific training is required when descriptive evaluation or the recognition of honey’s botanical origin is necessary. Descriptive evaluation of honey, whether polyfloral or monofloral, requires the use of agree-upon terminologies. Recognizing the botanical origin of a monofloral honey requires knowledge of the typical organoleptic characteristics of that particular bloom. The panel’s role is to assess whether the sample aligns with the information stated on the label. Experienced tasters can also deduce a honey’s geographical origin based on its organoleptic characteristics.

Therefore, to keep a tasting panel well-trained and aligned, it is essential to hold regular training sessions.

A basic understanding of sensory analysis and honey characteristics can also make other (less rigorous or “scientific,” but still useful) applications of sensory analysis accessible. These include performing self-checks and promoting and marketing products more effectively. Last but not least, the fundamentals of sensory analysis make food and wine-themed evenings with friends and family much more interesting and fun!

CHAPTER 4
BEYOND HONEY FLAVORS AND AROMAS – THE CULINARY AND CREATIVE WORLD OF BEEHIVE PRODUCTS

Health aspects of honey and bee products

Honey and bee products have been used by mankind for health preservation and healing since ancient times. Although consumers know and use honey most as a natural sweetener, i.e. as a food. Countless written records have survived about the use of honey and bee products for health preservation. Honey was also one of the most popular ingredients in Egyptian culture, mentioned 500 times in 900 remedies. Almost all Egyptian medicines contained honey along with wine and milk (Eteraf-Oskouei T, Najafi M. (2013).

The beneficial effects of bees, honey and bee products on health are attested to in numerous historical writings. Based on the analysis of more than 100 English-language literature, the authors present the beneficial, health-preserving and healing effects of honey described in the publications. (Samarghandian et al., 2017). 

The descriptions of the beneficial health effects of honey and bee products do not contain precise recipes, instructions for use of individual preparations. Thousands of years of observations provide good guidance on what and how to examine the health-preserving effects of honey and honey products.  

Honey is a functional natural food with strong scientific evidence supporting its anti-inflammatory, antioxidant, metabolic, and cardiovascular benefits. However, the composition varies by botanical and geographical origin, and more clinical studies are needed for standardized health claims (Al-Waili et al., 2025).

Legal limitations of health claims

Honey and beekeeping products intended for human consumption are considered FOODSTUFFS under Regulation (EC) No 178/2002. This means that all relevant food legislation must be applied during their production, marketing, and distribution.

When communicating about honey, the following EU regulations must be taken into account:

• Regulation 1169/2011/EU on general food labelling rules
• Regulation 1924/2006/EC on nutrition and health claims made on foods

Key legal principles:

• The labelling of foods must not mislead the consumer.
• Nutrition and health claims may only be made if:
  • Their nutritional and physiological effects are scientifically supported.
  • The substance in the claim is present in a bioavailable form (usable by the human body).
  • The claims are clearly understandable to the average consumer.
• The food business operator is responsible for ensuring claims are based on generally accepted scientific evidence.

What counts as a claim?

Any statement, image, graphic, or symbol that states, suggests or implies that a food has special characteristics is legally treated as a claim.

• A health claim implies a link between a food (or its components) and health.
• A reduction of disease risk claim suggests that a food significantly reduces a risk factor for a human disease.

➡️ You can find the full and up-to-date list of authorised and rejected health claims in the EU Register here: EU Register of Nutrition and Health Claims

⚠️ Currently, there is no authorised health claim for honey in the EU Register.

EFSA’s assessment of honey health claims

In 2008, the European Food Safety Authority (EFSA) evaluated scientific substantiation for several proposed health claims about honey and honeycomb. The submitted applications claimed the following:

• The antioxidant plant substances in honey have a beneficial effect on the respiratory system and soothe the throat.
• The unique composition of honey provides energy, supporting claims such as:
  • Honey preserves general health.
  • Honey improves memory and learning.
  • Honey supports wellbeing during menopause.

However, EFSA rejected these claims, citing a lack of specific, reliable test data on:

• The exact type and quantity of honey needed.
• How much and how often it should be consumed.

Why specific health claims cannot be made

Honey is composed of: ~39% fructose, ~31% glucose, ~10% other sugars, ~14–18% water.

It may also contain trace elements and compounds depending on the nectar source.

This variation makes it impossible to assign a specific health effect to a specific type of honey.

This cannot be used legally because:

• There is no precise data on which components and in what quantities produce the positive effect in linden honey. In most cases, there are no test results on the composition of honeys collected from different areas and at different times.
• There is no reliable recommendation as to how much honey and how often it should be consumed to achieve a beneficial effect, depending on the type of cough, age, and health condition.

What beekeepers can communicate

Such claims should always be:

• Clearly sourced from literature or traditional knowledge.
• Presented as non-scientific or anecdotal unless backed by published evidence.

This careful communication helps build trust with consumers while complying with the law.

Cosmetic uses of honey and bee products

Honey and bee products have been used not only as food but also for cosmetic purposes for thousands of years.

• In Ancient Greece, women mixed honey and olive oil into creams, and used milk and honey baths for soft, hydrated, and youthful skin.
• In Ancient Egypt, Queen Cleopatra bathed daily in donkey milk enriched with almond oil and honey to maintain her skin’s brightness and smoothness.

Today, honey continues to be a common ingredient in cosmetics and wellness therapies such as honey massage.

CHAPTER 5
BEES, BEEKEEPERS AND CLIMATE CHANGE: FROM CHALLENGES TO SHARED SOLUTIONS

Climate change

Climate change is one of the biggest global challenges we face today. It means long-term changes in temperature, rainfall, and weather patterns. The main cause is the growing amount of greenhouse gases—like carbon dioxide (CO₂), methane (CH₄), and nitrous oxide (N₂O)—released by human activity. These gases trap heat in the atmosphere, leading to global warming (Intergovernmental Panel on Climate Change (IPCC), 2023).

Since the Industrial Revolution, we’ve been burning more fossil fuels, clearing forests, and expanding intensive agriculture. All this has pushed greenhouse gas levels higher and weakened natural cycles, including the way carbon moves through the environment. The impacts don’t show up the same way everywhere: some areas are dealing with longer heatwaves and repeated droughts, while others see more sudden downpours or regular flooding. Beekeepers notice these shifts in very simple ways — trees blooming weeks earlier than they used to, nectar flows arriving at the “wrong” moment for the colony, or long stretches in summer when there’s hardly anything flowering.

The Arctic, in particular, is warming much faster than the global average, leading to rapid ice melt and rising sea levels (Hayhoe et al., 2018; World Meteorological Organization, 2024). These large-scale changes ripple into farming too. Uniform, monoculture-based systems tend to struggle under unpredictable weather, whereas mixed or multidisciplinary farms — especially those that include beekeeping — often cope better. Bees encourage more flowering plants, hedgerows, and crop diversity on the farm, and this extra diversity can make the whole system more resilient.

Consumers also have a role in shaping this shift. Choosing local food, buying honey from sustainable farms, or supporting producers who protect pollinators may seem like small actions, but together they help steer demand toward farming practices that work with nature instead of against it — and that give bees a fighting chance in a changing climate.

International programs and strategies addressing bees, beekeeping, and climate change

As climate change continues to affect pollinators, international programs and policies are being developed to protect bees and support beekeepers. These initiatives aim to strengthen resilience, promote biodiversity, and safeguard food security—helping beekeepers adapt to environmental change while protecting pollination services worldwide. As a beekeeper or anyone who is interested in honey, beekeeping and the future of bees the below listed and introduced programmes, initiatives might serve as relevant knowledge base on the importance of the issue and the strategies on how to adapt to the changes and to ensure a sustainable future.

United Nations Sustainable Development Goals (SDGs)

The UN’s Sustainable Development Goals (SDGs) provide a global framework for tackling environmental, social, and economic challenges—including those that affect bees and beekeeping. Several SDGs are directly relevant to pollinator health:

• SDG 2 – Zero Hunger: Promotes sustainable food production, recognizing pollinators’ key role in crop yields and food security.
• SDG 13 – Climate Action: Urges action to combat climate change, including efforts to protect bees from its impacts like habitat loss and extreme weather.
• SDG 15 – Life on Land: Supports biodiversity and highlights the importance of pollinators in maintaining healthy ecosystems.

These goals guide international efforts to foster sustainable agriculture, biodiversity conservation, and climate adaptation—all of which are essential for the future of beekeeping (UN, 2015).

European Green Deal

The European Green Deal is the EU’s roadmap to reach carbon neutrality by 2050 (European Commission, 2019). It includes measures that directly involve bees and beekeepers:

• Biodiversity Strategy for 2030: Aims to restore ecosystems, establish pollinator habitats, plant three billion trees, and protect 30% of EU land and sea by 2030 (Directorate-General for Environment (European Commission), 2021).
• Climate Adaptation Strategy: Promotes agricultural resilience and biodiversity, recognizing beekeepers as key players in strengthening ecosystem adaptability (European Commission, 2021).

EU Farm to Fork Strategy

• Part of the European Green Deal, this strategy promotes sustainable food systems. A key goal is to cut pesticide use by 50% by 2030, reducing pollinators’ exposure to harmful chemicals. It also encourages organic farming and biodiversity-friendly practices, ensuring diverse, nutritious forage for bees. Overall, the strategy supports healthier ecosystems and strengthens resilience to climate change (European Commission, 2020).

The Convention on Biological Diversity (CBD)

The CBD is a global treaty focused on biodiversity conservation, sustainable use, and fair benefit-sharing. Member countries develop national strategies to protect pollinators, linking biodiversity, food security, and climate adaptation.

Climate change in numbers

The climate crisis is accelerating fast. The World Meteorological Organization has issued a Red Alert, highlighting how quickly things have changed in just one generation. The decade from 2015 to 2024 has been the hottest ever recorded (World Meteorological Organization, 2024).

In Europe, the summer of 2024 was the hottest on record—1.54°C warmer than the 1991–2020 average. Each summer month ranked as the second warmest ever. October 2024 was also unusually warm, the fifth hottest October recorded in Europe. Sea levels are also rising more quickly, due to melting glaciers and warming oceans. From 2014 to 2023, global sea levels rose by 4.77 mm per year—more than twice the rate seen in the 1990s. These numbers show that climate change is not a future problem—it’s happening now, and it’s speeding up.

In 2024, global CO₂ emissions from fossil fuels are expected to reach 37.4 billion tonnes—up 0.8% from last year. When combined with emissions from land-use changes like deforestation, the total could hit 41.6 billion tonnes. Although land-use emissions have slightly decreased over the past decade, fossil fuel emissions keep rising. Overall, global CO₂ output has remained high and steady—around 40 billion tonnes per year. There’s still no sign that emissions have peaked. Worryingly, both fossil and land-use emissions are expected to grow, especially due to drought-driven forest loss and wildfires linked to the 2023–2024 El Niño. These rising emissions continue to fuel dangerous global warming.

The EU made real progress in 2023—greenhouse gas emissions dropped by 8.3% compared to the previous year. Since 1990, emissions have fallen by 37%, even as the EU economy grew by 68%. This shows that it’s possible to reduce emissions without hurting economic growth. The EU has made substantial progress: since 1990 emissions have fallen by more than 37%. Current projections show the EU on track for a roughly 54 %–55 % reduction by 2030, assuming existing and planned policy measures are implemented in full. But despite this progress, 2024 has shown us how serious climate change already is. Record rain, floods, extreme storms, deadly heatwaves, long droughts, and wildfires are becoming the new normal—offering a glimpse into the future we must work to avoid (European Commission, 2024).

Impact of climate change on ecosystems   

Ecosystems—networks of plants, animals, and microorganisms interacting with their environment—are being disrupted by climate change in complex ways. While some species manage to adapt by changing their behavior or migrating to more suitable habitats, many others cannot keep up. As a result, climate change is causing the expansion, reduction, or extinction of certain populations, with serious consequences for biodiversity. Many plants and animals rely on natural signals—like temperature or rainfall—to trigger key life events such as flowering, migration, or breeding. But as these signals shift due to climate change, so does the timing of these events. For example, some plant species are blooming earlier in spring, while their pollinators may not yet be active. These mismatches can break the natural rhythm of ecosystems, leading to disrupted food chains and declines in biodiversity. In addition, invasive species are expanding into new territories, thriving in conditions that are increasingly unfavorable to native species. This puts further stress on ecosystems already struggling with climate-driven changes.

Climate change also affects water systems. Altered rainfall patterns, reduced snowmelt, and changing groundwater recharge impact both the quantity and quality of available water. Many regions are likely to face growing water scarcity, which will make both ecosystem and human adaptation more difficult. In coastal areas, rising sea levels lead to saltwater intrusion into rivers and underground aquifers, compromising freshwater supplies (FAO, 2015).

Extreme weather events—such as hurricanes, wildfires, heatwaves, and floods—are becoming more frequent and intense. These events can cause immediate and severe damage to forests, grasslands, wetlands, and marine habitats. Wildfires, in particular, are more common and destructive than ever, reshaping entire ecosystems and leaving long-lasting scars on the landscape (IPCC, 2022). 

These impacts often interact in dangerous ways. Warmer temperatures increase evaporation, intensifying drought. Drought, in turn, weakens plant life, making it more vulnerable to pests, disease, and fire. This feedback loop can cause ecosystems to decline rapidly—and sometimes irreversibly.

The year 2024 gave us a harsh glimpse into this reality. Massive wildfires swept across 13 countries in South America, fuelled by long-term deforestation and the effects of the El Niño event that ended earlier that year. These fires destroyed millions of hectares, threatening lives, property, and ecosystems. At the same time, deadly heatwaves hit the Philippines, Thailand, Bangladesh, and India, leading to drought, school closures, and fatalities. Meanwhile, devastating floods in Brazil, Kenya, the UAE, and Spain claimed hundreds of lives (Eschenbacher, 2024).