Out of roughly 20,000 known bee species, only a small fraction produce honey in any meaningful quantity. The overwhelming majority of the world’s honey comes from just seven to twelve species in the genus Apis, the true honey bees, with the western honey bee (Apis mellifera) dominating commercial production worldwide. But honey bees are not alone in the honey-making business. Stingless bees, a group of over 600 species found across the tropics, also store honey in their nests, and their product has properties distinct enough to attract growing scientific interest. Meanwhile, the vast majority of bee species, from bumblebees to carpenter bees to mason bees, either store negligible amounts of sugary liquid or none at all.
True Honey Bees and Why They Dominate
The genus Apis includes species like the western honey bee (Apis mellifera), the eastern honey bee (Apis cerana), and the giant honey bee (Apis dorsata). These are the classic honey producers, the ones beekeepers manage in hives around the world. What makes them so prolific at honey production comes down to colony size, anatomy, and behavior working together.
Honey bee colonies can number tens of thousands of workers, all foraging and contributing nectar back to shared storage. The anatomy matters, too. When a foraging bee drinks nectar, it goes into a specialized structure called the crop, essentially a holding tank in the foregut. The crop connects to the midgut through a structure called the proventriculus, which acts as a valve that keeps nectar in the crop while allowing the bee to regulate what passes into its own digestive system.1Protoplasma. Formation of the proventriculus in the foregut during metamorphosis of the honey bee Apis mellifera Linnaeus, 1758 (Hymenoptera: Apidae) Back at the hive, foragers pass the nectar mouth-to-mouth to house bees, who spread it in thin layers across wax comb cells and fan it with their wings, driving off moisture until the sugar concentration is high enough to resist spoilage. The finished product is capped with beeswax and stored indefinitely.
This whole system exists because Apis colonies are perennial. Unlike most bee species, honey bee colonies survive winter as intact units. They need massive energy reserves to keep the cluster warm during cold months, and honey is that reserve. A healthy colony heading into a temperate winter may store 30 kilograms of honey or more. This overwintering strategy is what makes honey bees uniquely suited to commercial beekeeping: they produce far more honey than they need when forage is abundant, and that surplus is what beekeepers harvest.
Stingless Bees, the Tropics’ Other Honey Makers
Stingless bees (tribe Meliponini) represent a separate lineage of highly social bees found in tropical and subtropical regions across Central and South America, Africa, Southeast Asia, and Australia. With over 600 described species, they are remarkably diverse. Like honey bees, stingless bee colonies are perennial and social, with a queen, workers, and stored food reserves. They build elaborate nests using a mixture of wax and plant resins, and resin use is central to nearly every aspect of their colony life, from nest construction to defense against predators and pathogens.2PubMed Central. Resin Use by Stingless Bees: A Review
The honey they produce, however, is a different product from what you find in a jar labeled “honey” at the grocery store. Stingless bee honey is stored in small resin pots rather than wax combs, and yields per colony are much lower than those of Apis mellifera. A productive stingless bee colony might yield one to five liters of honey per year, compared to the 20 to 60 kilograms a well-managed honey bee hive can produce. That enormous difference in output is the main reason stingless bee honey has never become a global commodity, though it is prized in local and traditional markets across the tropics.
How Stingless Bee Honey Differs from Regular Honey
If you tasted stingless bee honey side by side with standard supermarket honey, you would notice the difference immediately. It tends to be thinner, more acidic, and often has a tangy or slightly sour flavor. These aren’t just taste impressions; they reflect genuine chemical differences. Stingless bee honey has a significantly higher moisture content than Apis mellifera honey, generally in the range of 23 to 37.5 percent, compared to the roughly 17 to 20 percent typical of commercial honey.3Food Production, Processing and Nutrition. Microbiological and physical-chemical characteristics of pollen and honey from stingless bees: a review That extra water makes it more prone to fermentation, which is partly what gives it that characteristic tartness.
The sugar content tends to be lower and the acid content higher in stingless bee honey, likely because different fermentation processes are at work. Research comparing stingless bee and Apis mellifera honeys from the same region found that stingless bee honey had greater overall chemical diversity, meaning a broader range of different compounds, which may enhance its bioactive properties.4ACS Food Science & Technology. Compositional Profile of Honeys from Stingless Bees and Honeybee Honey from a West African Country Using 1H NMR Spectroscopy A comparative review of Ethiopian honeys from both bee types confirmed the pattern: stingless bee honey scores higher on moisture and acidity, while Apis mellifera honey has more total reducing sugars.5PubMed. Physicochemical and Microbiological Profiles of Ethiopian Honey: A Comparative Review of Apis mellifera and Stingless Bee Honey
That higher moisture content has a practical downside. Stingless bee honey is more vulnerable to microbial contamination, including yeasts, molds, and bacteria, particularly when post-harvest handling is not carefully managed.5PubMed. Physicochemical and Microbiological Profiles of Ethiopian Honey: A Comparative Review of Apis mellifera and Stingless Bee Honey This is one reason it has historically been consumed fresh and locally rather than shipped long distances. International food standards for honey were largely written with Apis mellifera honey in mind, and stingless bee honey often doesn’t fit neatly within those parameters, creating regulatory hurdles for producers who want to sell it commercially.
Bumblebees Store Honey, But Barely
Bumblebees (Bombus species) are social bees, but their colonies operate on a completely different scale and timeline than honey bees. A bumblebee colony is annual: a single queen starts a new nest in spring, the colony grows to perhaps a few hundred workers at peak, and the whole thing dies off in autumn except for newly mated queens who hibernate through winter. Because the colony does not need to survive winter as a unit, there is no evolutionary pressure to stockpile large food reserves.
Bumblebees do store small amounts of nectar in wax “honeypots” inside their nests. These are roughly thimble-sized cups made of wax, typically positioned near the brood. Workers visit these pots to feed and to learn the scent profiles of flowers the colony is currently exploiting.6Learning and Motivation. Honeypot visitation enables scent learning and heightens forager response in bumblebees (Bombus impatiens) But the total volume stored at any given time is tiny, maybe a teaspoon or two at most. You could technically call this “honey,” and some people do, but it bears little resemblance to the concentrated, shelf-stable product that Apis bees make. It is more like dilute nectar held temporarily for the colony’s immediate energy needs.
This is why no one farms bumblebees for honey. They are commercially important, but for pollination, not for food production. Greenhouse tomato growers, for instance, rely heavily on managed bumblebee colonies because bumblebees are excellent buzz pollinators, vibrating their flight muscles at a frequency that shakes pollen loose from flowers that honey bees handle less effectively.
Solitary Bees Make No Honey at All
The overwhelming majority of the world’s bee species are solitary. This includes mason bees, leafcutter bees, mining bees, carpenter bees, and sweat bees, among many others. A solitary bee female builds her own nest, provisions individual cells with a mixture of pollen and nectar, lays an egg in each cell, and then seals it. She never returns. There is no colony, no division of labor, no shared food storage. Each larva consumes its personal food supply, pupates, and emerges as an adult the following season.
Because there is no colony to feed through lean periods, solitary bees have no reason to produce honey. The pollen-nectar provision they leave for each larva is sometimes described as “bee bread,” but it is a moist, perishable paste consumed in days or weeks, not a preserved liquid stored for months. These bees do visit flowers and collect nectar, but they process it only enough to mix with pollen for their offspring. No surplus, no storage, no honey.
This does not make solitary bees less important ecologically. In fact, for certain crops, they are more effective pollinators per individual visit. Research on sweet cherry pollination found that mason bees and other solitary species had higher single-visit pollination efficiency than either bumblebees or honey bees, visited more flowers per minute, and were more likely to contact the flower’s reproductive structures.7Agricultural and Forest Entomology. Pollination efficiency and foraging behaviour of honey bees and non‐Apis bees to sweet cherry The common assumption that honey bees are the best pollinators for every crop is simply wrong. They are generalists deployed in huge numbers, which compensates for their per-visit inefficiency, but a single mason bee can do more pollination work on certain flowers than a single honey bee can.
Beyond Bees Entirely
Honey production is not exclusive to bees. A handful of social wasps and even some ants also store honey-like substances, arrived at through completely independent evolutionary paths.
The Mexican honey wasp (Brachygastra mellifica) is the best-known example among wasps. These social wasps build paper nests, store honey in comb cells, and have been harvested by people in parts of Mexico and Central America for centuries. Their honey is edible and sweet, though the flavor profile differs from bee honey. What makes honey wasps especially interesting is that they represent a truly independent origin of honey-storing behavior. Unlike bees, they are predators that hunt other insects for protein and do not consume pollen at all.8PubMed Central. Honey wasps differ from other wasps in possessing large gut communities dominated by host-restricted bacteria Their gut microbiome has adapted accordingly, hosting bacterial communities quite different from those of other wasps but convergent in some ways with the gut communities of honey-storing bees.
Then there are honeypot ants (Camponotus inflatus and related species), found in arid regions of Australia and the American Southwest. These ants don’t store honey in combs or pots. Instead, specialized worker ants called “repletes” gorge themselves on nectar and honeydew until their abdomens swell to the size of small grapes, turning themselves into living storage containers. Other colony members feed from them by stimulating the replete to regurgitate a drop. The liquid these ants store has genuine antimicrobial properties. Testing against the bacterium Staphylococcus aureus, honeypot ant honey proved as active as high-grade manuka honey and more active than jarrah honey.9PeerJ. Unique antimicrobial activity in honey from the Australian honeypot ant (Camponotus inflatus) It also showed activity against certain molds and the fungal pathogen Cryptococcus neoformans. Indigenous Australians have harvested honeypot ants as a food source for thousands of years.
Vulture Bees and the Strangest Twist on Bee Biology
Within the stingless bees, a small handful of species have abandoned pollen collection altogether and taken up a diet that sounds like it belongs in a horror film. Three known species of so-called “vulture bees” (genus Trigona) feed on animal carcasses as their sole protein source, making them obligate necrophages, the only bees known to do so.10PubMed Central. From pollen to putrid: Comparative metagenomics reveals how microbiomes support dietary specialization in vulture bees A few additional stingless bee species are facultative necrophages, meaning they eat both pollen and carrion. Vulture bees still collect nectar and produce a honey-like substance stored in resin pots. Whether you would want to eat it is a matter of personal comfort, but it is reported to be sweet.
What allows vulture bees to thrive on rotting meat is a radically different gut microbiome compared to their pollen-eating relatives. Their guts harbor acid-producing bacteria similar to those found in vultures and hyenas, organisms that also feed on carrion. These bacteria likely help break down animal proteins and neutralize the pathogens found on decaying flesh. The evolutionary shift from pollen to carrion as a protein source is a dramatic departure from the fundamental biology of bees, and it happened within a group that already produces honey. It is a reminder that “bee” encompasses a far wider range of lifestyles than most people assume.
Honeydew Honey and Non-Floral Sources
Not all honey comes from flower nectar. Honeydew honey is produced when bees collect the sugary excretions of sap-sucking insects like aphids and scale insects. These insects feed on plant sap, extract the amino acids they need, and excrete the excess sugars as droplets of honeydew on leaves and stems. Honey bees readily collect this material and process it into honey through the same enzymatic and evaporation steps used for nectar.
Honeydew honey tends to be darker in color, less sweet, and more mineral-rich than floral honeys. It often has higher electrical conductivity and greater acidity. Research documenting honey bees collecting honeydew from oat aphids on sorghum plants in Egypt found that the resulting honeydew honey had noticeably elevated acidity compared to typical floral honey, with free acidity values averaging around 49 milliequivalents per kilogram.11Egyptian Journal of Plant Protection Research Institute. Honey bees and honeydew honey production from oat aphid Rhopalosiphum padi on sorghum plants in Egypt In parts of Europe, honeydew honeys (such as forest honey from conifer regions) are valued as a distinct product and sometimes sell at a premium.
For the bees, the source of the sugar matters less than its availability. If a field is dense with aphid honeydew and flowers are scarce, the bees will happily work the honeydew. This flexibility is part of what makes Apis mellifera such a successful species across varied environments.
Stingless Beekeeping and Its Deep Roots
While Apis mellifera beekeeping gets most of the attention, the management of stingless bees, known as meliponiculture, is a practice with deep historical roots. In Mesoamerica, it has existed for thousands of years among a variety of rural and indigenous cultures.12Frontiers in Sustainable Food Systems. Stingless bee keeping: Biocultural conservation and agroecological education The ancient Maya were particularly sophisticated practitioners. Archaeological evidence from the Postclassic period capital of Mayapán (roughly 1150 to 1450 CE) shows that stingless beekeeping was practiced in both domestic and public settings, and the honey and wax produced were linked to other activities including metallurgy and the production of balché, a ritual fermented drink.13Journal of Anthropological Archaeology. The organization of stingless beekeeping (Meliponiculture) at Mayapán, Yucatan, Mexico
Modern Maya communities in the Yucatan still practice meliponiculture today. The relationship between people, stingless bees, flowering plants, and the managed landscape forms an intricate ecological web. Native stingless bees are valued for their honey and wax, but also for the pollination services they provide to crops in the surrounding farmlands.14Journal of Ethnobiology. The Origins of Maya Stingless Beekeeping In recent decades, the introduction of Apis mellifera beekeeping to the region has put economic pressure on meliponiculture, since honey bee colonies produce far more honey per hive. But there is renewed interest in stingless bee honey as a specialty product, and conservation efforts increasingly recognize meliponiculture as a form of biocultural heritage worth preserving.
Similar traditions exist in other parts of the world. In parts of Brazil, Australia, and Southeast Asia, stingless bee honey commands premium prices in local markets. The Australian native stingless bees (genera Tetragonula and Austroplebeia) produce small quantities of honey with a distinctive tangy flavor, and hobbyist meliponiculture has grown steadily in Queensland and northern New South Wales.
Why Most Bees Never Evolved Honey Production
Given that nectar is available to virtually all bees, it might seem strange that only a tiny minority produce honey. The answer comes back to social structure and seasonal survival strategy. Honey is an energy storage solution for colonies that persist through periods when foraging is impossible. If your colony dies every autumn and a new one starts from a single hibernating queen each spring, there is no colony to feed through the gap and no incentive to build surplus stores. The metabolic cost of producing and storing honey only pays off if there is someone around to eat it months later.
Solitary bees sidestep the problem entirely by provisioning each offspring individually with just enough food to reach adulthood. Short-lived social colonies like bumblebees store just enough for a rainy week. Only the perennial, large-colony species, whether they are Apis honey bees or tropical stingless bees, face the selective pressure to build serious food reserves. And even among social bees, the scale of honey production tracks colony size. A stingless bee colony of a few thousand workers stores far less than an Apis colony of 50,000.
The evolutionary logic is straightforward, but it means that when people talk about “saving the bees” to protect honey production, they are talking about a vanishingly small slice of bee diversity. Most bees contribute to ecosystems through pollination, not through honey, and many of the most effective crop pollinators are solitary species that will never produce a drop.