The Hidden World of Bees and Honey

A Beginner’s Guide to the Remarkable Insects Behind One of Nature’s Greatest Foods

When most people think of bees, they picture a single familiar insect; the European honey bee (Apis mellifera), buzzing from flower to flower before returning to a hive full of golden honey. But this tiny glimpse barely scratches the surface of one of nature’s most extraordinary groups of animals.

Scientists have described more than 20,000 species of bees, making them one of the most diverse groups of insects on Earth. They inhabit every continent except Antarctica, thriving in deserts, rainforests, alpine meadows, woodlands, grasslands and even our own backyards. Some are no larger than a grain of rice, while others rival small birds in size. Many live alone, some build intricate underground nests, others carve tunnels into timber and only a select few live in the bustling colonies most of us associate with bees.

Perhaps the greatest surprise is this:

Most bees don’t make honey.

Although honey has been treasured for thousands of years as both a food and a medicine, only a small number of bee species produce enough surplus honey for humans to harvest. The vast majority spend their lives pollinating flowers, raising their young and quietly supporting ecosystems without ever filling a honeycomb.

Understanding bees means looking beyond honey jars. It means exploring millions of years of evolution, the incredible partnership between bees and flowering plants, the diversity of species that share our planet and the remarkable ways humans have relied on these insects throughout history.

Bees: Nature’s Master Pollinators

Bees belong to one of the oldest and most successful groups of insects on Earth. Their story began more than 100 million years ago, when ancient wasp-like ancestors gradually shifted from hunting other insects to collecting pollen and nectar from the first flowering plants.

This evolutionary partnership transformed life on Earth.

As flowers evolved brighter colours, richer nectar and enticing scents to attract pollinators, bees developed specialised adaptations that made them increasingly efficient at gathering food. Dense body hairs trap pollen grains, branched hairs hold even more pollen, specialised “pollen baskets” on the legs of some species transport food back to the nest, and long tongues allow many bees to reach nectar hidden deep within flowers.

This relationship benefits both partners. Bees collect nectar as an energy-rich food and pollen as a source of protein for their young, while flowering plants rely on bees to transfer pollen between blossoms, enabling reproduction and seed production.

Today, bees pollinate thousands of wild plant species as well as many crops that make up our everyday diets. Apples, almonds, blueberries, pumpkins, tomatoes and countless other fruits, vegetables, nuts and herbs all benefit from bee pollination.

Yet despite their importance, honey production is only a small part of what makes bees extraordinary. Most species will never produce a spoonful of harvestable honey, but every one of them plays a role in maintaining healthy ecosystems.

Scientific Classification: Where Do Bees Fit in the Animal Kingdom?

Every living organism is given a scientific classification based on its evolutionary relationships. This system, known as taxonomy, helps scientists organise the incredible diversity of life and understand how different species are related.

At first glance, a honey bee, a carpenter bee and a bumblebee may seem like completely different insects. Yet they all share a common ancestry and belong to the same branch of the tree of life.

The Scientific Classification of Bees

Each level groups organisms that share common characteristics. As the classification becomes more specific, the organisms become more closely related.

For example, bees belong to the order Hymenoptera, which also includes ants, wasps and sawflies. While these insects share ancient ancestors, millions of years of evolution have led them down very different paths.

The Bee Family Tree

Although there are more than 20,000 known bee species, they are grouped into several major families.

Apidae

The largest and perhaps most familiar bee family.

This family includes:

• Honey bees (Apis)
• Bumblebees (Bombus)
• Stingless bees (Meliponini)
• Carpenter bees (Xylocopa)
• Orchid bees (Euglossini)
• Cuckoo bees

Many of the world’s social bees belong to this family, including the species responsible for producing nearly all commercially harvested honey.

Megachilidae

Known for their remarkable nesting behaviour rather than honey production.

This family includes:

• Leafcutter bees
• Mason bees
• Resin bees
• Wool-carder bees

Instead of living in colonies, most build individual nests using leaves, mud, plant fibres or tree resin.

Andrenidae

Commonly known as mining bees.

These mostly solitary bees dig tunnels into the ground, where each female builds and provisions her own nest.

Thousands of species emerge each spring, quietly pollinating native flowers and fruit trees.

Halictidae

Often called sweat bees because some species are attracted to the salt in human perspiration.

This incredibly diverse family ranges from tiny black bees to brilliant metallic green and blue species. Some are solitary, while others display simple social behaviour.

Colletidae

Sometimes known as plasterer or cellophane bees.

These bees line the walls of their nests with a waterproof secretion, creating a protective chamber for their offspring.

Melittidae

A relatively small family of highly specialised bees.

Many species collect pollen from only a limited range of flowering plants, making them particularly vulnerable to habitat loss.

Stenotritidae

One of the world’s rarest bee families.

Found only in Australia, these large, fast-flying bees represent an ancient lineage found nowhere else on Earth.

A Remarkable Diversity

Although honey bees receive most of the attention, they represent only a tiny branch of the bee family tree.

Most bees are solitary rather than social.

Most never build wax honeycombs.

Most never produce honey.

Some nest underground.

Others hollow out dead wood.

Some use leaves as building materials, while others construct nests from mud or plant resin.

Each has evolved its own unique strategy for surviving and pollinating the plants around it.

Understanding this diversity helps explain why bees are among the most important pollinators on Earth and why protecting only honey bees is not enough. Healthy ecosystems depend on thousands of different bee species, each adapted to particular flowers, climates and habitats.

Bees vs Wasps vs Hornets

Understanding the Differences

At first glance, bees, wasps and hornets can appear remarkably similar. All belong to the insect order Hymenoptera, share four wings, six legs and complete metamorphosis, and many people mistakenly group them together. Despite these similarities, they occupy very different ecological roles.

Honey bees are primarily vegetarians, feeding on nectar and pollen while acting as some of the world’s most important pollinators. Wasps and hornets, on the other hand, are predominantly predators or scavengers, helping to control insect populations rather than pollinating flowers.

Understanding these differences not only makes identification easier but also highlights why each group is important within healthy ecosystems.

Scientific Relationship

Although bees, wasps and hornets are related, they belong to different branches of the Hymenoptera family tree.

One surprising fact is that hornets are not a separate group from wasps—they are simply the largest social wasps, belonging to the genus Vespa.

Bees

Bees evolved alongside flowering plants over millions of years. Their bodies are specially adapted for collecting pollen.

Characteristics include:

• Dense hairs that trap pollen.
• Broad, robust bodies.
• Special pollen baskets on the hind legs of many species.
• Diet consisting mainly of nectar and pollen.
• Outstanding pollination abilities.

Only a small number of bee species, such as honey bees (Apis) and stingless bees (Meliponini), produce surplus honey that humans harvest.

Wasps

Wasps are generally slimmer, smoother and more agile than bees.

Unlike bees, most wasps hunt other insects, spiders and caterpillars to feed their larvae. Adults often consume nectar as an energy source but do not collect pollen for food.

Many wasps are valuable natural pest controllers, helping regulate insect populations in gardens, forests and farms.

Most species are solitary and do not live in large colonies.

Hornets

Hornets are the largest social wasps.

They build large paper nests from chewed wood fibres and aggressively defend their colonies when threatened.

Hornets prey on flies, caterpillars, beetles and even other wasps, making them important predators within ecosystems.

Although they can visit flowers and occasionally pollinate plants, this is not their primary ecological role.

Why We Need All Three

Bees, wasps and hornets each contribute to healthy ecosystems in different ways.

Bees pollinate wild plants and crops that support biodiversity and food production.

Wasps naturally suppress pest populations by hunting insects that can damage crops and forests.

Hornets act as top insect predators, helping maintain ecological balance within their habitats.

Rather than viewing one group as “good” and another as “bad,” it is more accurate to see them as specialists that evolved to perform different ecological roles. Each contributes to the resilience and functioning of natural ecosystems.

Meet the World’s Bees

With more than 20,000 known species, bees are incredibly diverse. They vary in size, colour, behaviour and habitat, yet they all share one defining characteristic; they feed on pollen and nectar, making them among the world’s most important pollinators.

While some bees live in highly organised colonies of tens of thousands of individuals, most are solitary insects that spend their lives quietly nesting underground, inside hollow stems or within dead timber. Some produce wax, a few make honey, but the vast majority never do.

Let’s meet the major groups of bees found around the world.

Honey Bees (Apis)

When people think of bees, they are almost always picturing a honey bee.

Honey bees are highly social insects that live in permanent colonies consisting of a single queen, thousands of female worker bees and seasonal male drones. Workers build intricate wax combs, collect nectar and pollen, care for developing larvae and defend the hive.

Unlike most other bees, honey bees store large quantities of honey to feed the colony through periods when flowers are scarce. This surplus food reserve is what humans have harvested for thousands of years.

Today, the Western honey bee (Apis mellifera) is the world’s most widely managed bee species, but several other Apis species naturally occur throughout Asia.

Bumblebees ( Bombus)

Bumblebees are among the largest and hairiest bees on Earth. Their dense coat allows them to fly in cooler temperatures and pollinate flowers long before many other insects become active.

Unlike honey bees, bumblebee colonies are relatively small, often consisting of only a few hundred individuals. They produce a small amount of honey, but only enough to feed the colony, making commercial harvesting impractical.

Many crops, including tomatoes, blueberries and capsicums, depend on their unique ability to perform buzz pollination, where the bee vibrates flowers to release tightly held pollen.

Stingless Bees (Meliponini)

Despite their name, stingless bees are not completely defenceless; they simply possess a greatly reduced sting that cannot penetrate human skin.

These tropical bees have been producing honey for millions of years and were carefully managed by Indigenous peoples long before modern beekeeping developed.

Their honey differs noticeably from that of honey bees. It contains more moisture, has a thinner consistency and offers a pleasantly tangy, slightly fermented flavour.

Australia alone is home to more than a dozen native stingless bee species, while hundreds more occur across South America, Central America, Africa and Southeast Asia.

Carpenter Bees (Xylocopa)

Carpenter bees are among the largest bees in the world. Their glossy black or metallic bodies and loud flight often cause them to be mistaken for bumblebees.

Rather than building wax hives, female carpenter bees excavate tunnels inside dead wood where they create a series of brood chambers for their offspring.

Although they do not produce honey, they are valuable pollinators of many native flowering plants.

Mason Bees (Osmia)

Mason bees are quiet, gentle pollinators that build their nests inside hollow stems, insect holes and artificial nesting tubes.

Using mud as a natural building material, females carefully divide each nesting chamber before sealing it.

Despite their small size, mason bees are incredibly efficient pollinators. A single mason bee may pollinate as many blossoms as dozens of honey bees, making them especially valuable in orchards.

Leafcutter Bees (Megachile)

Leafcutter bees are famous for cutting neat circular pieces from leaves.

These leaf fragments are carried back to the nest and used to construct protective chambers for developing larvae.

Although gardeners sometimes notice the distinctive circular holes left behind, the damage is usually cosmetic, while the pollination benefits greatly outweigh it.

Mining Bees (Andrena)

Mining bees are among the first pollinators to emerge in spring.

Each female digs a tunnel into the ground, where she creates several chambers stocked with pollen and nectar before laying her eggs.

Thousands of individuals may nest close together, yet each female works independently rather than forming a colony.

Sweat Bees (Halictidae)

Sweat bees earned their unusual name because some species are attracted to the salts found in human perspiration.

This remarkably diverse family includes tiny black bees as well as spectacular metallic green, blue and bronze species that shimmer in sunlight.

Depending on the species, they may live alone or display simple forms of social behaviour.

Blue-Banded Bees (Amegilla)

Native to Australia and parts of Asia, blue-banded bees are instantly recognisable by their vivid electric-blue stripes.

Like bumblebees, they are capable of buzz pollination, making them exceptionally important for crops such as tomatoes, eggplants and blueberries.

Unlike honey bees, each female constructs her own nest independently.

Orchid Bees (Euglossini)

Among the most colourful bees in the world, orchid bees display brilliant metallic shades of emerald green, sapphire blue and bronze.

Male orchid bees collect fragrant compounds from orchids and other flowers, storing these perfumes in specialised leg pouches before using them during courtship displays.

Their relationship with tropical orchids represents one of nature’s most extraordinary examples of co-evolution.

A Small Minority Make Honey

Looking across the remarkable diversity of bees, one pattern quickly becomes clear.

Most bees are solitary.

Most never build large colonies.

Most never store food for winter.

And most never produce harvestable honey.

In fact, the honey we enjoy today comes primarily from just two groups: honey bees (Apis) and, in some tropical regions, stingless bees (Meliponini).

Why Don’t All Bees Make Honey?

The answer lies in how they live.

Solitary Bees vs Social Bees

Around 90% of all bee species are solitary.

A solitary bee has no queen, no worker bees and no hive filled with thousands of individuals. Instead, every female is both mother and builder.

She finds or creates a suitable nesting site, perhaps a tunnel in the ground, a hollow stem, a cavity in wood or a crack in stone. She gathers pollen and nectar, forms a nutritious food ball called bee bread, lays a single egg and seals the chamber. Once her work is complete, she repeats the process until the nest is finished.

Unlike honey bees, solitary bees never need to feed thousands of nestmates through winter. Their offspring remain safely inside their sealed chambers until the following season, living entirely on the food their mother prepared before they were born.

Because of this simple lifestyle, there is no need to manufacture or store large quantities of honey.

Life Inside a Honey Bee Colony

Honey bees took a very different evolutionary path.

Instead of living alone, they evolved permanent colonies that may contain 20,000 to 80,000 individuals, sometimes even more during peak seasons.

Within every colony, each bee has a specialised role.

• The queen lays eggs and is the colony’s only fertile female.
• Worker bees, all female, clean the hive, care for larvae, build wax comb, forage for nectar and pollen, produce honey, regulate hive temperature and defend the colony.
• Drones, the male bees, exist solely to mate with new queens.

Keeping such a large society alive requires an enormous and reliable food supply.

When flowers are abundant, workers collect far more nectar than the colony can consume immediately. Instead of allowing this valuable resource to spoil, they transform it into honey; a concentrated, long-lasting energy reserve that can sustain the colony during winter, drought or periods when flowers are scarce.

Honey is, quite literally, the colony’s emergency pantry.

The Evolution of Honey

Honey did not evolve for humans.

Bees began producing honey millions of years before people ever harvested it.

Its purpose is simple: survival.

Fresh nectar contains around 70–80% water, making it highly susceptible to fermentation. By adding natural enzymes and reducing the water content to around 17–20%, honey bees create a stable food that can remain edible for years.

This remarkable adaptation allowed colonies to survive seasonal shortages and expand into regions with cold winters and unpredictable climates.

Humans simply learned to share in that stored abundance.

What About Bumblebees?

Many people are surprised to learn that bumblebees also make honey.

However, their colonies are much smaller—often only a few dozen to a few hundred bees—and they survive for just one season.

Because their colonies die each autumn, they never need to store vast reserves of food.

The tiny amount of honey they produce is reserved entirely for the queen and developing brood, making it impractical and unethical to harvest.

Stingless Bees: The Other Honey Makers

Long before European beekeeping spread across the world, Indigenous cultures throughout Australia, Central and South America, Africa and Southeast Asia harvested honey from stingless bees.

Unlike honey bee honey, stingless bee honey contains more moisture, giving it a thinner consistency and a pleasantly tangy flavour with subtle fermented notes.

Although production is much lower than that of honey bees, stingless bee honey remains culturally significant and is increasingly appreciated for its unique taste and traditional importance.

Why Humans Harvest Only a Few Species

From a practical perspective, successful honey production depends on several factors working together.

A bee species must:

• Live in large, permanent colonies.
• Produce significant surplus honey beyond its own needs.
• Store honey in accessible nests.
• Tolerate careful harvesting without destroying the colony.
• Produce enough honey to make harvesting worthwhile.

Only a handful of bee species meet all of these requirements.

This is why, despite the astonishing diversity of bees, nearly all of the honey enjoyed around the world comes from just two groups: honey bees (Apis) and stingless bees (Meliponini).

A Remarkable Exception

Although most bees never produce honey, every bee contributes something equally valuable.

Carpenter bees pollinate native trees.

Mason bees are among the world’s most efficient orchard pollinators.

Leafcutter bees support crops such as lucerne and blueberries.

Blue-banded bees pollinate tomatoes through buzz pollination.

Mining bees provide essential early spring pollination.

In other words, a bee doesn’t need to make honey to be indispensable.

Their greatest gift to our planet is not the honey we harvest, but the countless flowers, forests and food crops they help bring to life.

How Bees Make Honey: From Flower to Hive

Every jar of honey begins with a single flower.

What appears to us as a simple golden liquid is actually the result of thousands of bee flights, millions of flowers and a remarkable natural process that has been refined through millions of years of evolution.

A single worker honey bee may visit 50 to 100 flowers during one foraging trip, while a healthy colony collectively visits millions of flowers throughout the flowering season. Each tiny drop of nectar collected contributes to one of nature’s most extraordinary foods.

Let’s follow the journey of a single drop of nectar.

Step 1 — Finding the Flowers

Worker bees leave the hive in search of flowering plants rich in nectar and pollen.

Using an exceptional combination of vision, smell and memory, they locate productive flowers, often travelling several kilometres from the hive. Bees can see ultraviolet patterns invisible to the human eye, allowing them to identify floral “nectar guides” that lead directly to the flower’s reward.

While nectar provides carbohydrates for energy, pollen supplies proteins, fats, vitamins and minerals needed to raise the next generation of bees.

Step 2 — Collecting Nectar

Using a long, tube-like tongue called a proboscis, the bee drinks nectar from the flower and stores it inside a specialised organ known as the honey stomach (or crop).

This is not the bee’s digestive stomach.

Instead, it acts as a temporary storage tank where the nectar begins its transformation.

As the nectar is carried back to the hive, natural enzymes released by the bee begin changing its chemistry.

Step 3 — Nature’s Tiny Chemists

Fresh nectar is mostly water and simple plant sugars.

Inside the honey stomach, worker bees add several important enzymes, including:

• Invertase – breaks the plant sugar sucrose into the simpler sugars glucose and fructose.
• Glucose oxidase – helps produce small amounts of hydrogen peroxide and gluconic acid, contributing to honey’s acidity and natural antimicrobial properties.
• Diastase (amylase) – assists in breaking down more complex carbohydrates.

These enzymes are one reason honey is much more than concentrated flower nectar.

Step 4 — Passing Nectar Through the Colony

Once the foraging bee returns home, she passes the partially processed nectar to younger worker bees.

This exchange occurs mouth-to-mouth in a process called trophallaxis.

Although it may sound unusual, trophallaxis allows nectar to be mixed with additional enzymes while reducing its water content through repeated handling.

Each transfer brings the nectar one step closer to becoming true honey.

Step 5 — Removing the Water

Fresh flower nectar usually contains 70–80% water.

If stored in this form, it would quickly ferment.

Worker bees spread the nectar into thin layers within the hexagonal wax cells of the honeycomb. Thousands of bees then fan their wings continuously, creating airflow throughout the hive.

This natural ventilation evaporates excess moisture until the water content falls to approximately 17–20%, depending on the honey and environmental conditions.

This low moisture content is one of the main reasons properly ripened honey can remain stable for years.

Step 6 — Sealing the Honey

When the honey has reached the correct consistency, worker bees seal each cell with a thin cap of fresh beeswax.

This process, known as capping, protects the honey from moisture, contamination and spoilage.

Only capped honey is considered fully ripened and ready for long-term storage.

For the bees, these sealed combs serve as a food reserve during winter, drought or times when flowers are unavailable.

How Much Work Does It Take?

Producing honey is an astonishing collective effort.

To produce one kilogram of honey, a colony may:

• Visit several million flowers.
• Fly a combined distance of well over 100,000 kilometres—more than twice around the Earth.
• Collect and concentrate many kilograms of nectar.
• Work continuously for weeks during the flowering season.

Every spoonful of honey represents the combined effort of thousands of worker bees, each performing a small but essential role.

More Than Sweetness

Honey is often thought of simply as a natural sweetener, but from a biological perspective it is something far more remarkable.

It is a carefully engineered food reserve created through teamwork, chemistry and extraordinary precision.

No machinery, preservatives or human intervention are required—only flowers, bees and time.

The result is a food that has nourished bee colonies for millions of years and fascinated human societies for thousands more.

Why Every Honey Is Different

At first glance, honey may seem like a simple food.

Yet place two jars side by side and you’ll quickly notice striking differences. One may be almost crystal clear, while another is dark amber or nearly black. Some are delicately floral and sweet, while others are rich, earthy, herbal or even slightly bitter.

These differences are no accident.

Just as grapes reflect the vineyard where they were grown, honey reflects the landscape from which bees gathered nectar. Every jar tells the story of its flowers, its climate, its soil, its seasons and the remarkable work of the bees that produced it.

It All Begins With Flowers

The single greatest influence on honey is the plant from which bees collect nectar.

Every flowering species produces nectar with its own unique blend of sugars, aromatic compounds, minerals and plant chemicals. As bees transform this nectar into honey, many of these characteristics remain.

For example:

• Leatherwood trees produce a beautifully aromatic honey unique to Tasmania.
• Manuka shrubs yield a rich, distinctive honey associated with high levels of methylglyoxal (MGO) in some honeys.
• Heather creates a thick, jelly-like honey with an intense floral flavour.
• Clover produces one of the lightest and mildest honeys in the world.
• Buckwheat creates a dark, robust honey with deep malty notes.

Although bees perform the same process, the flowers provide very different starting ingredients.

More Than Just Nectar

The surrounding environment also shapes honey.

Climate influences how much nectar flowers produce and how concentrated it becomes.

Soil affects the health of plants and the minerals they absorb.

Rainfall, temperature and seasonal conditions all influence flowering patterns, while geography determines which plants grow naturally in a region.

This is why two honeys collected from the same bee species can taste remarkably different if they come from different landscapes.

The Role of the Bees

Although the nectar source has the greatest influence, the bees themselves also play a part.

Different honey-producing bee species vary in their behaviour, colony size and honey-making process.

For example, honey produced by stingless bees naturally contains more moisture than honey from Apis honey bees. This gives it a thinner consistency, a pleasantly tangy flavour and a shorter natural shelf life.

These differences remind us that honey is shaped not only by plants, but also by the insects that create it.

Colour Doesn’t Tell the Whole Story

Honey ranges from almost colourless to deep amber and nearly black.

Many people assume darker honey is always “better” or “healthier,” but colour alone tells us very little.

A honey’s colour is influenced by many factors, including:

• The floral source
• Natural plant pigments
• Mineral content
• Climate
• Seasonal conditions
• Age and storage

Light honeys often have delicate floral flavours, while darker honeys may taste richer and more robust. Neither is inherently superior—each reflects the flowers from which it came.

Why Some Honey Crystallises

Another common question is why some honey remains liquid while others become thick or grainy.

Crystallisation is a completely natural process.

It occurs because honey contains different proportions of the natural sugars glucose and fructose.

Honeys that are higher in glucose tend to crystallise more quickly, while those richer in fructose may remain liquid for months or even years.

Temperature, pollen particles and storage conditions also influence how rapidly crystals form.

Importantly, crystallisation is not a sign that honey has spoiled or become fake. In many cases, it is simply evidence that the honey has remained minimally processed.

A Taste of the World

Every region has its own botanical treasures, producing honeys that reflect local landscapes and traditions.

Among the world’s most celebrated varieties are:

Each of these honeys reflects a unique combination of plants, climate, geography and beekeeping traditions.

Nature’s Signature

No two landscapes are exactly alike, and neither are their honeys.

Every spoonful is a natural record of the flowers that bloomed, the season in which they flowered, the bees that visited them and the environment that surrounded them.

This extraordinary diversity is one of the reasons honey has fascinated people for thousands of years. It is far more than a sweetener; it is one of nature’s most remarkable expressions of place.

Honey Through History: Humanity’s Oldest Sweetener

Long before sugar plantations, supermarkets or modern agriculture, there was honey.

For thousands of years, honey was the world’s only widely available natural sweetener. It flavoured food, preserved fruit, fermented into alcoholic drinks, soothed wounds and throats, featured in religious ceremonies and was offered as a valuable gift to kings and rulers.

The story of honey is therefore not just the story of bees—it is also the story of humanity.

Prehistoric Honey Hunters

Human fascination with honey stretches back thousands of years.

One of the oldest known depictions of honey gathering is a prehistoric rock painting discovered in the Cuevas de la Araña (“Spider Caves”) in Spain. Estimated to be around 8,000 years old, it shows a person climbing a cliff using ropes while collecting honey from a wild bee nest.

Long before beekeeping existed, people risked painful stings and dangerous climbs to reach wild colonies hidden inside hollow trees, rock crevices and caves. The reward was a rare food rich in natural sugars, available long before refined sweeteners were ever imagined.

Ancient Egypt: Masters of Beekeeping

Few civilisations valued honey as highly as the ancient Egyptians.

By at least 2400 BCE, Egyptians were keeping bees in carefully crafted clay hives along the Nile. Honey was used not only as food but also in medicine, cosmetics, religious offerings and the preservation of certain materials.

Bees were so highly respected that they became a symbol of Lower Egypt, appearing in royal titles and inscriptions. Honey was sometimes placed in tombs as an offering for the afterlife, and remarkably, sealed pots of honey discovered in ancient Egyptian tombs have remained preserved for thousands of years.

Greece and Rome

The ancient Greeks considered honey a gift from the gods.

Philosophers such as Aristotle carefully observed bee behaviour, while physicians including Hippocrates described honey in traditional remedies for wounds, sore throats and digestive complaints.

The Romans expanded beekeeping throughout their empire, developing sophisticated hive designs and recognising the importance of bees for both agriculture and food production.

Honey also became the primary sweetener in countless recipes, long before sugar reached Europe.

The Viking Age and Mead

Across Northern Europe, honey held a special place in Norse society.

Rather than being valued only as a food, honey was also transformed into mead—one of humanity’s oldest fermented beverages.

In Norse mythology, mead was associated with wisdom, poetry and celebration. Sagas describe great feasts where mead flowed freely, while stories such as the Mead of Poetry linked the drink to divine inspiration.

Although wild honey was collected whenever possible, early Scandinavians also practised forms of forest beekeeping, protecting natural bee colonies found inside hollow trees.

The Maya and Stingless Bees

On the other side of the world, the Maya civilisation developed a completely different relationship with bees.

Rather than keeping honey bees (Apis), they cultivated native stingless bees, particularly Melipona beecheii.

These gentle bees produced smaller quantities of honey, but it was highly valued for food, ceremonies and traditional medicine.

The Maya built hollow log hives and developed sustainable beekeeping practices that continue in some communities today, making them among the world’s earliest known stingless bee keepers.

From Traditional Hives to Modern Beekeeping

For centuries, beekeepers used woven straw skeps, hollow logs, clay tubes and wooden box hives to manage colonies.

A major breakthrough came in 1851, when American beekeeper Lorenzo Langstroth developed the movable-frame hive. By discovering the importance of what is now called “bee space,” he created a hive that allowed frames to be removed and inspected without destroying the colony.

This invention transformed modern beekeeping and remains the foundation of most managed hives today.

More recently, innovations such as the Australian-designed Flow Hive have introduced new ways of harvesting honey while minimising disturbance to the bees.

An Ancient Partnership

Across continents and cultures, one theme remains constant.

Whether gathered from cliffs by prehistoric hunters, stored in Egyptian temples, fermented into Viking mead or harvested from stingless bees by the Maya, honey has always been more than a food.

It represents one of humanity’s oldest partnerships with the natural world.

Yet despite thousands of years of history, the process itself has never changed.

Bees still visit flowers.

They still transform nectar into honey.

And they still quietly sustain the ecosystems upon which both they and we depend.

A Journey Around the World Through Honey

Australia

Australia is home to some of the world’s most distinctive native flowering trees, particularly species of Eucalyptus, many of which produce exceptional monofloral honeys found nowhere else on Earth.

Leatherwood Honey

Origin: Tasmania

Produced from the ancient Leatherwood tree (Eucryphia lucida), this honey is famous for its intense floral aroma and smooth, lingering sweetness. Because Leatherwood forests are found naturally only in Tasmania, genuine Leatherwood honey is one of Australia’s most unique botanical treasures.

Jarrah Honey

Origin: Western Australia

Collected from the blossoms of the Jarrah tree (Eucalyptus marginata), this rich amber honey is known for its bold flavour and naturally slow crystallisation. Jarrah forests are found only in southwestern Australia.

Yellow Box Honey

Origin: Southeastern Australia

Yellow Box honey is prized for its mild, buttery flavour and smooth texture. It is often considered one of Australia’s finest everyday table honeys.

Red Gum Honey

Produced from several Red Gum eucalyptus species, this honey has a deeper colour and a rich caramel-like flavour.

Other Australian Honeys

Australia also produces remarkable honeys from:

• Ironbark
• Stringybark
• Blue Gum
• Spotted Gum
• Banksia
• Tea Tree
• Macadamia
• Wildflower blends

Australia is also home to native stingless bees, whose tangy honey has been harvested by Aboriginal peoples for thousands of years.

New Zealand

Although famous for Manuka honey, New Zealand produces many excellent floral honeys.

Manuka Honey

Perhaps the world’s best-known specialty honey.

Produced from the nectar of the Manuka shrub (Leptospermum scoparium), some Manuka honeys naturally contain elevated levels of methylglyoxal (MGO), a compound extensively studied for its antibacterial properties. Because MGO levels vary naturally, independent grading systems such as UMF™ and MGO ratings help describe the composition of individual batches.

Kanuka Honey

Collected from the closely related Kanuka tree, this honey is lighter in colour and milder in flavour than Manuka.

Clover Honey

One of the world’s most popular table honeys, known for its light colour and gentle sweetness.

Europe

Europe has a long history of beekeeping and an extraordinary diversity of floral honeys.

Heather Honey

A thick, aromatic honey with a distinctive jelly-like texture and rich floral flavour, highly valued throughout Scotland and Northern Europe.

Acacia Honey (Black Locust)

Despite its common name, this honey comes from the flowers of the Black Locust tree (Robinia pseudoacacia).

It is exceptionally pale, delicate in flavour and naturally slow to crystallise due to its high fructose content.

Chestnut Honey

Dark, complex and slightly bitter, Chestnut honey is especially popular in Italy, France and parts of the Mediterranean.

Buckwheat Honey

One of the darkest honeys available, Buckwheat honey offers bold malty flavours and a rich aroma unlike lighter floral varieties.

Lavender Honey

Collected from lavender fields across southern Europe, this honey is light, fragrant and delicately floral.

The Middle East

Honey has held cultural and culinary importance in the Middle East for thousands of years.

Sidr Honey

Often regarded as one of the world’s most prestigious honeys, Sidr honey is produced from the blossoms of the Sidr tree (Ziziphus spina-christi).

Traditionally harvested in Yemen and neighbouring regions, it is recognised for its rich caramel-like flavour and cultural significance.

Thyme Honey

Collected throughout Mediterranean landscapes, thyme honey possesses a warm herbal aroma and deep amber colour.

Asia

Asia is home to an enormous diversity of honey-producing plants and several native honey bee species.

Popular varieties include:

• Longan Honey
• Lychee Honey
• Coffee Blossom Honey
• Jujube Honey
• Rubber Tree Honey
• Mustard Honey

The Himalayan region is also famous for cliff honey, harvested from the giant Himalayan honey bee (Apis laboriosa) by skilled honey hunters using traditional rope ladders suspended from towering cliffs.

Africa

Across Africa, acacia woodlands, forests and flowering shrubs provide nectar for a wide range of distinctive honeys.

Notable varieties include:

• Acacia Honey
• Mopane Honey
• Aloe Honey
• Wild Forest Honey

Many rural communities continue traditional methods of honey hunting and beekeeping that have changed little for generations.

North America

North America produces a remarkable range of honeys thanks to its diverse climates and landscapes.

Some of the best-known include:

• Tupelo Honey
• Sourwood Honey
• Clover Honey
• Basswood Honey
• Fireweed Honey
• Avocado Honey
• Blueberry Honey
• Alfalfa Honey
• Orange Blossom Honey

Each reflects the unique flora of its growing region.

Tropical Forests and Stingless Bee Honey

Long before modern beekeeping, Indigenous peoples across Australia, Central and South America cultivated native stingless bees.

Unlike honey bee honey, stingless bee honey contains more moisture, giving it a thinner consistency and pleasantly tangy flavour. Because it is produced in much smaller quantities, it remains one of the world’s rarest honeys.

A Different Kind of Honey: Honeydew Honey

Not all honey begins with flower nectar.

In forests dominated by pine, fir and other trees, tiny sap-feeding insects such as aphids and scale insects consume plant sap and excrete a sugary liquid known as honeydew.

Honey bees collect this honeydew and transform it into honeydew honey, producing varieties such as Black Forest, Pine and Fir honey.

These honeys are typically darker, less sweet and richer in minerals than floral honeys.

Every Landscape Has Its Own Honey

From Tasmania’s ancient Leatherwood forests to the mountains of Yemen, the eucalyptus woodlands of Australia and the lavender fields of southern Europe, every region leaves its own signature in honey.

No two jars tell exactly the same story.

Each captures a moment in time, a flowering season, a landscape and the quiet work of thousands of bees.

Understanding MGO, UMF and What Makes Some Honeys Unique

Not all honey is chemically identical.

While every genuine honey is produced through the same remarkable process, the nectar collected from different plants contains different naturally occurring compounds. These contribute to each honey’s unique flavour, aroma, colour and chemical profile.

One of the best-known examples is Manuka honey, which has attracted worldwide attention for its naturally occurring levels of methylglyoxal (MGO).

What Is MGO?

Methylglyoxal (MGO) is a naturally occurring organic compound found in many foods and also produced naturally within the human body as part of normal metabolism.

In Manuka honey, however, MGO is present in much higher concentrations than in most other floral honeys.

Interestingly, bees do not add MGO directly.

Instead, Manuka flowers produce nectar containing a compound called dihydroxyacetone (DHA). As the honey matures after harvest, some of this DHA gradually converts into methylglyoxal.

The amount of MGO present therefore depends on several factors, including the nectar itself, storage conditions and the age of the honey.

Why Is MGO Important?

Researchers became interested in MGO because laboratory studies found it contributes to the non-peroxide antibacterial activity of Manuka honey.

Most honeys produce small amounts of hydrogen peroxide through the action of the enzyme glucose oxidase, giving them natural antimicrobial properties.

Manuka honey is different because much of its antibacterial activity remains even when hydrogen peroxide is neutralised. This additional activity is largely associated with MGO, although scientists believe other naturally occurring compounds also contribute.

This unique chemistry has led to the development of medical-grade Manuka honey dressings used in specific wound-care settings under professional guidance.

It is important to distinguish this medical use from everyday food-grade honey, which is sold as a food rather than a medicine.

What Do the MGO Numbers Mean?

Many jars of Manuka honey display numbers such as:

• MGO 100+
• MGO 250+
• MGO 550+
• MGO 850+

These numbers indicate the approximate concentration of methylglyoxal, measured in milligrams per kilogram (mg/kg) of honey.

Generally speaking:

Higher numbers indicate a greater concentration of methylglyoxal, but they do not necessarily determine flavour, freshness or overall quality.

What Is UMF™?

Another label commonly found on Manuka honey is UMF™, which stands for Unique Manuka Factor.

Unlike MGO, UMF™ is a certification system, not a single chemical.

To receive a UMF™ rating, certified honey is tested for several markers, including:

• Methylglyoxal (MGO)
• Dihydroxyacetone (DHA)
• Leptosperin, a compound naturally associated with Manuka nectar

The UMF™ grading system also helps verify that the honey is genuine Manuka honey and meets specific quality standards established by the certification body.

Does Higher MGO Always Mean Better Honey?

Not necessarily.

MGO measures one naturally occurring compound found predominantly in Manuka honey. It does not measure the flavour, aroma, floral complexity or overall nutritional composition of a honey.

Many exceptional honeys—including Leatherwood, Jarrah, Heather, Sidr, Buckwheat and countless regional varieties—are appreciated for entirely different characteristics.

Every honey reflects the unique plants, climate and landscapes from which it came.

Rather than asking which honey is “best,” a better question is:

What makes this particular honey unique?

Beyond Honey: The Other Treasures of the Hive

While honey is undoubtedly the hive’s most famous creation, it is only one of several remarkable substances produced by honey bees. Every healthy colony functions like a highly organised community, with worker bees creating a variety of materials that serve different purposes within the hive.

For thousands of years, many of these natural products have also been valued by human cultures around the world.

Beeswax

Beeswax is produced by young worker bees from specialised glands on the underside of their abdomen.

Tiny wax scales are secreted, chewed and shaped into the familiar hexagonal honeycomb; the remarkable structure used to raise young bees and store honey and pollen.

Humans have used beeswax for thousands of years to make candles, cosmetics, wood polishes, waterproofing treatments and food wraps. Because it is produced naturally by the bees themselves, beeswax remains one of the most versatile materials found in the hive.

Bee Pollen

As bees visit flowers, pollen grains cling to the fine hairs covering their bodies.

Worker bees collect this pollen, mix it with small amounts of nectar and enzymes, then pack it into specialised “pollen baskets” on their hind legs before carrying it back to the hive.

Inside the colony, pollen serves as the primary source of protein, fats, vitamins and minerals needed to feed developing larvae and young worker bees.

Bee Bread

Once pollen reaches the hive, it is packed tightly into honeycomb cells.

The bees add nectar and beneficial microorganisms before sealing the mixture beneath a thin layer of honey.

This process creates bee bread; a naturally fermented food that is easier for bees to digest and an essential source of nutrition for the colony.

Despite its name, bee bread contains no flour or grain. It is simply fermented pollen prepared by the bees themselves.

Propolis

Often called “bee glue,” propolis is made when worker bees collect sticky resins from tree buds, bark and other plant tissues before mixing them with beeswax and their own enzymes.

Inside the hive, propolis acts as a natural building material and protective sealant.

Bees use it to:

• Seal cracks and small openings.
• Strengthen the hive structure.
• Smooth rough surfaces.
• Reduce unwanted airflow.
• Help maintain a clean hive environment.

Its aromatic scent varies depending on the trees growing around the hive, meaning propolis from different regions can differ in colour, texture and fragrance.

Royal Jelly

Royal jelly is a nutrient-rich secretion produced by young worker bees.

All bee larvae receive royal jelly during their first few days of life, but the developing queen is fed almost exclusively on it throughout her larval stage.

This specialised diet supports her rapid development and enables her to become the colony’s only fertile female.

Royal jelly plays a vital role in the biology of the hive, demonstrating how nutrition influences the different castes within a honey bee colony.

Bee Venom

Although best known for its defensive sting, bee venom is another natural product of the hive.

Worker bees use their stingers primarily to defend the colony from predators.

The venom is a complex mixture of biologically active compounds that has been studied extensively by scientists, although its natural role is simply colony defence.

Drone Brood Homogenate

Less well known than honey or royal jelly, drone brood homogenate is made from developing drone (male bee) larvae before they reach adulthood.

It has been used in some traditional practices and is sold as a dietary supplement in certain parts of Europe and Asia. Because it is derived from immature drone brood, it differs greatly from other hive products such as honey, beeswax and propolis.

Although it has attracted scientific interest due to its naturally occurring proteins, lipids, vitamins and hormones, research into its effects on human health is still limited, and more high-quality clinical studies are needed before firm conclusions can be drawn.

Unlike honey or beeswax, drone brood homogenate is not a product that bees naturally produce for storage. Instead, it is obtained by harvesting developing drone larvae from the hive.

Every Bee Has a Role

A honey bee colony is far more than a factory for making honey.

Within a single hive, bees build intricate wax architecture, collect pollen, ferment food, gather protective plant resins, nourish future queens and defend their home, all while pollinating the flowers that sustain countless ecosystems.

Each product of the hive tells part of a larger story.

Together, they reveal the extraordinary complexity of one of nature’s most successful societies.