Of the roughly 20,000 known bee species on Earth, only a small minority produce anything we would recognize as honey. The familiar Western honey bee gets almost all the attention, but it belongs to a genus of just seven to twelve species (depending on who is counting), and beyond those, only one other major group, the stingless bees, manufactures and stockpiles true honey. The vast majority of bees, from solitary mason bees nesting in hollow stems to massive carpenter bees boring into wood, never make a drop.
The Honey Bee Genus Apis
When most people think of honey, they picture the Western honey bee, Apis mellifera. But A. mellifera is just one species in the genus Apis, and every member of that genus produces honey. The giant honey bee of Southeast Asia (Apis dorsata) builds enormous single-comb nests on cliff faces and tree branches. The dwarf honey bee (Apis florea) makes tiny exposed combs in shrubs. The Eastern honey bee (Apis cerana) has been kept by beekeepers across Asia for centuries. All of them collect nectar, process it with enzymes, and dehydrate it into honey stored in wax comb.
What makes Apis colonies such prolific honey producers is the sheer scale of their operation. A healthy A. mellifera colony can contain 40,000 to 60,000 workers, and their survival strategy revolves around stockpiling far more honey than they need on any given day. In cold climates, a colony consumes upward of 20 kilograms of honey over a single winter, fueling the bees’ ability to generate heat by vibrating their flight muscles and keep the cluster above freezing even when outside temperatures plunge well below zero.1Ecological Entomology. Survival of honeybees in cold climates: the critical timing of colony growth and reproduction That overproduction is exactly what makes commercial beekeeping possible: beekeepers harvest the surplus.
Honey bees also have an unusually sophisticated communication system that supports their foraging efficiency. Returning foragers perform a waggle dance inside the hive, conveying the direction and distance of a nectar source to their nestmates.2PubMed Central. How habitat affects the benefits of communication in collectively foraging honey bees This allows colonies to rapidly recruit thousands of workers to the most productive flower patches, which is one reason Apis colonies amass honey at rates no other bee can match.
Stingless Bees Produce Honey Too
The other major group of honey-producing bees is the stingless bees, tribe Meliponini. With over 600 described species spread across tropical and subtropical regions of the Americas, Africa, Asia, and Australia, stingless bees are far more species-rich than the Apis genus. Their colonies are smaller, usually ranging from a few hundred to several thousand workers depending on the species, and their honey output per colony is correspondingly modest. But they definitely make and store real honey.
Stingless bees collect nectar and store it not in the flat wax comb familiar from Apis hives but in small, spherical pots made of cerumen, a mixture of wax and plant resins. The honey inside those pots differs from Apis honey in several ways. It has a distinctly sour taste and higher moisture content.3PubMed Central. A Review on Recent Progress of Stingless Bee Honey and Its Hydrogel-Based Compound for Wound Care Management Chemical analyses of stingless bee honeys from Venezuela confirmed that their moisture levels are significantly higher and their acidity is greater than Apis mellifera honey.4Apidologie. Composition of Venezuelan honeys from stingless bees (Apidae: Meliponinae) and Apis mellifera L The result is a thinner, tangier product that spoils more easily if not handled carefully.
In many tropical communities, harvesting stingless bee honey is a tradition stretching back centuries. In Ethiopia, for instance, communities locate wild colonies by tracking worker bees in flight, then harvest honey primarily by squeezing it from the cerumen pots. Most of this honey is harvested once a year and used mainly for medicinal purposes.5PubMed Central. Indigenous knowledge-based production practices and utilization of stingless bee honey in humid Afromontane Forest zones of the Southwest and Semi-Arid Forest zone of Ethiopia
Bumblebees Store Nectar but Don’t Really Make Honey
Bumblebees (genus Bombus) are social bees that live in colonies, forage on flowers, and store nectar. So why aren’t they counted as honey makers? The answer comes down to what they do with that nectar and how long they keep it. Bumblebees collect nectar and deposit it into small waxy pots inside their nest, but they don’t enzymatically process or dehydrate it the way honey bees do. What sits in those pots is essentially stored nectar, not transformed honey, and the quantity is tiny: just enough to feed the colony through a few days of bad weather.
Bumblebee colonies are also annual affairs in temperate regions. A colony founded by a single queen in spring grows to perhaps a few hundred workers by midsummer, produces new queens and males in late summer, and then dies off. Only the newly mated queens survive the winter, hibernating alone underground. There is no overwintering colony that needs a massive honey reserve, so bumblebees never evolved the drive to stockpile the way Apis and stingless bees have. The nectar stores they maintain are short-term and small-scale, gathered and consumed without the extended transformation period that characterizes real honey production.
Solitary Bees Skip Honey Entirely
The overwhelming majority of the world’s bee species are solitary, meaning each female builds and provisions her own nest without the help of a worker caste. Mason bees, leafcutter bees, mining bees, and sweat bees all fall into this camp. None of them make honey.
A solitary female’s approach to feeding her offspring looks nothing like a honey bee colony’s. She constructs a series of small cells, often in a hollow stem, a hole in the ground, or a gap in masonry, and provisions each cell with a mass of pollen (sometimes mixed with a bit of nectar) before laying a single egg on top and sealing the cell shut. She never returns to feed the larva; the pollen ball is the offspring’s entire food supply.6Functional Ecology. Solitary bee larvae prioritize carbohydrate over protein in parentally provided pollen There is no communal food store, no comb, no honey pot. The mother bee simply collects enough pollen for each egg and moves on. When you realize that solitary species make up the vast majority of bee diversity, the picture becomes clear: honey production is the exception in the bee world, not the rule.
How Nectar Becomes Honey
Understanding why so few bees make honey is easier once you appreciate what the process actually involves. Nectar fresh from a flower is roughly 70 to 80 percent water, with sugars (mainly sucrose) making up most of the rest. Turning that thin, perishable liquid into thick, shelf-stable honey requires both chemistry and physics.
The chemistry starts inside the bee. Worker honey bees add enzymes from their salivary glands as they process incoming nectar. The most important of these is invertase, which splits sucrose into glucose and fructose. They also add glucose oxidase, which produces small amounts of hydrogen peroxide, and amylase. Studies of honey bee salivary glands show that invertase is produced in the highest quantities, followed by amylase and then glucose oxidase.7Physiological Entomology. Activity of salivary glands in secreting honey‐elaborating enzymes in two subspecies of honeybee (Apis mellifera L) Bees repeatedly ingest and regurgitate the nectar among themselves, mixing it thoroughly with these enzymes.
The physics is dehydration. Worker bees spread the enzyme-treated nectar in thin films across comb cells and fan it with their wings, driving moisture down to roughly 17 to 20 percent. At that water content, honey becomes inhospitable to most microorganisms. Its high sugar concentration creates osmotic pressure that pulls water out of bacterial cells, its acidity lowers the pH enough to discourage growth, and the trace hydrogen peroxide from glucose oxidase adds another layer of antimicrobial defense.8PubMed Central. Honey: a reservoir for microorganisms and an inhibitory agent for microbes Once the moisture is low enough, the bees cap the cell with wax, sealing the honey for long-term storage.
This entire process demands a large, organized workforce and a physical structure capable of holding the honey while it dries. Solitary bees have neither. Bumblebees have small colonies and no reason to invest in long-term storage. Only Apis and stingless bees have the colonial infrastructure and the evolutionary motivation, surviving through dearth periods, to carry out the full nectar-to-honey transformation at scale.
Parasitic and Non-Foraging Bees
Some bee species have gone even further from honey production by abandoning foraging altogether. Cuckoo bumblebees (subgenus Psithyrus) are social parasites that infiltrate the nests of other bumblebee species, kill or subdue the host queen, and force the host workers to raise the parasite’s offspring. These bees have lost the ability to produce workers of their own and no longer collect nectar or pollen at all.9Oxford Academic. Ecology and Evolution of Cuckoo Bumble Bees They are bees by lineage, but their lifestyle has diverged so far from foraging that honey production is not even a theoretical possibility for them.
Then there are the vulture bees, a handful of stingless bee species in the Neotropical genus Trigona that have abandoned pollen collection in favor of feeding on animal carcasses. These obligate necrophages visit dead animals instead of flowers, harvesting rotting flesh as their protein source.10PubMed Central. Why Did the Bee Eat the Chicken? Symbiont Gain, Loss, and Retention in the Vulture Bee Microbiome A few related species are facultative necrophages, eating both carrion and pollen depending on availability.11PubMed. From pollen to putrid: Comparative metagenomics reveals how microbiomes support dietary specialization in vulture bees Vulture bees still visit flowers for nectar and still store a honey-like substance in their nests, but their protein source is entirely different from what we associate with bees. It is a vivid reminder of how much variation exists even within the honey-producing stingless bee tribe.
When Other Insects Make “Honey”
Bees are not the only insects that store concentrated sugar. The Mexican honey wasp (Brachygastra mellifica) is a social wasp that collects nectar, stores it in combs, and produces a honey that indigenous communities in Mexico and Central America have harvested for centuries. Researchers consider the honey wasp an independent evolutionary origin of honey-storing behavior, entirely separate from the bee lineage. Unlike bees, honey wasps do not visit flowers for pollen and instead hunt other insects for protein.12PubMed Central. Honey wasps differ from other wasps in possessing large gut communities dominated by host-restricted bacteria
Honeypot ants take a different approach. In desert environments where food is unpredictable, certain worker ants serve as living storage vessels. These “repletes” are fed nectar and honeydew by their nestmates until their abdomens swell enormously. When times are lean, other colony members tap the repletes and receive regurgitated liquid food through mouth-to-mouth transfer. Fossil evidence places this behavior deep in ant evolutionary history, with replete workers found preserved in Eocene amber.13bioRxiv. The first fossil replete ant worker establishes living food storage in the Eocene Australian Aboriginal peoples have long dug up honeypot ant nests and eaten the repletes as a sweet food source.
Neither wasp honey nor honeypot ant secretions are classified as “honey” under food standards, which generally define honey as a product made by bees. But the underlying strategy, converting and storing plant sugars to survive periods without flowers, has evolved independently multiple times across the insect world.
Why Stingless Bee Honey Breaks International Standards
If you have ever wondered why stingless bee honey is not sold in mainstream supermarkets alongside Apis honey, part of the answer is regulatory. International food standards for honey, particularly the Codex Alimentarius, were built around the characteristics of Apis mellifera honey. Stingless bee honeys consistently fail to meet those standards on multiple counts, including moisture content, free acidity, and the ratio of fructose to glucose.14PubMed. Unique physicochemical properties and rare reducing sugar trehalulose mandate new international regulation for stingless bee honey A key chemical difference is the presence of trehalulose, a rare reducing sugar that is abundant in stingless bee honey but virtually absent from Apis honey. It simply does not fit the existing regulatory mold.
The sensory profile is also strikingly different. Lab analyses of stingless bee honeys from Mexico and Guatemala found wide variation in color, consistency, and taste among species, with sweetness and acidity being the most prominent flavor attributes.15PubMed Central. Sensory and physicochemical analysis of honeys of nine stingless bee species of Mexico and Guatemala Some species produce dark, intensely flavored honeys, while others yield pale, mildly tangy products. One study comparing a Brazilian stingless bee species (Melipona fasciculata) across three different ecosystems found that the honey ranged from gold and citric in coastal regions to semi-bright and spicy in savanna areas.16PubMed. Honey from Tiúba stingless bees (Melipona fasciculata) produced in different ecosystems: physical and sensory studies The same species of bee produced distinctly different honeys depending on its local flora and environment.
The Growing Market for Stingless Bee Honey
Despite the regulatory hurdles, stingless bee honey has carved out a niche as a high-value specialty product. In countries like Brazil, Mexico, and Bolivia, it has long been sold for medicinal use, but an increasing number of consumers now treat it as a luxury food item, paying considerably more per kilogram than they would for conventional Apis honey.17PLOS ONE. Bees for Development: Brazilian Survey Reveals How to Optimize Stingless Beekeeping The market for organic and specialty honeys, pollens, and propolis is also growing in Europe and the United States. Brazilian law, however, imposes strict registration requirements on stingless beekeepers with more than 50 colonies or those who wish to sell bee products commercially, and unauthorized transport of colonies is prohibited. These regulations, designed to protect native bee populations, simultaneously constrain small-scale producers from scaling up.
Researchers have called for new international standards tailored to stingless bee honey’s unique chemistry, arguing that applying Apis-based criteria to a fundamentally different product blocks it from legitimate commerce and undervalues its potential.14PubMed. Unique physicochemical properties and rare reducing sugar trehalulose mandate new international regulation for stingless bee honey Whether such standards emerge will likely depend on how quickly the global specialty food market grows and whether consumer demand creates enough economic pressure to move regulatory bodies.
An Evolutionary View of Honey Production
Honey-making in bees is tied to advanced social living. Eusociality, the system in which a colony has a reproductive queen, a worker caste, and overlapping generations, evolved at least 87 million years ago in the common ancestor of the corbiculate bees, the group that includes honey bees, stingless bees, bumblebees, and orchid bees.18PLOS ONE. The Antiquity and Evolutionary History of Social Behavior in Bees From that shared ancestor, advanced eusociality and large-scale honey production evolved independently in the honey bee and stingless bee lineages. Bumblebees never developed the same degree of social complexity or the long-lived perennial colonies that would make honey stockpiling worthwhile. And orchid bees actually reversed course, losing eusociality and returning to a largely solitary lifestyle.
The pattern makes evolutionary sense. Storing honey is expensive: it requires large colonies, specialized comb or pot construction, coordinated enzymatic processing, and dedicated fanning behavior for dehydration. This investment only pays off for colonies that persist long enough to face seasonal food shortages. Annual bumblebee colonies die before winter. Solitary bees never form colonies in the first place. Only perennial social species, facing months without flowers, evolved the full honey-production apparatus.
How Managed Honey Bees Affect Wild Bees
One consequence of honey bees’ remarkable foraging efficiency is competition with wild bee species. A study in a Mediterranean scrubland found that areas close to apiaries had lower wild bee biomass, with the decline driven by reduced numbers of large bee species that are most likely to compete directly with honey bees for the same flowers.19Basic and Applied Ecology. Collateral effects of beekeeping: Impacts on pollen-nectar resources and wild bee communities Honey bees were the dominant consumers of pollen and nectar on the two main flowering plants in the study area, and at the apiary densities present in the park, the wild bee community was measurably affected.
This matters beyond the question of who makes honey. The non-honey-producing wild bees, the solitary species, the bumblebees, the small sweat bees, are often more effective pollinators of specific plants than honey bees are. A honey bee visiting a tomato flower, for instance, cannot buzz-pollinate the way a bumblebee can. When managed honey bee colonies are introduced at high densities into an area, the wild bees that are specialized pollinators for local plants may lose access to the food they depend on. For anyone interested in pollinator conservation, the relationship between honey-producing and non-honey-producing bees is not a simple story of more bees being better.