A Comparative Study of Honey Bee Species: Characteristics and Honey Production

Not all honey bees are the same. While most people picture a single, familiar yellow-striped bee buzzing around flowers, there are actually several distinct species of honey bees – each with its own size, temperament, nesting strategy, and capacity to produce honey. The four main species studied in beekeeping are Apis dorsata, Apis florea, Apis cerana, and Apis mellifera. Understanding the differences between these species is fundamental to appreciating how beekeeping works, why certain species are preferred for commercial honey production, and what each contributes to ecosystems and agriculture.

How honey bee species are classified 🔗

All honey bees belong to the genus Apis within the family Apidae. According to the FAO, the genus Apis currently includes eleven recognized species, though most beekeeping literature and introductory texts focus on the four most agriculturally relevant ones: Apis mellifera, Apis cerana, Apis florea, and Apis dorsata. One of the most practical ways to distinguish these species is by their nesting behavior. Species that build nests consisting of a series of parallel combs usually nest inside cavities, and this behavior enables them to be kept inside man-made containers and opens up possibilities for their management inside hives. Species that build single combs usually nest in the open and cannot be kept in hives. This distinction directly determines which species can be domesticated for commercial beekeeping.

On this basis, the four species fall into two clear groups: the wild, open-nesting species (Apis dorsata and Apis florea), which build a single exposed comb and cannot be conventionally domesticated, and the cavity-nesting, domesticated species (Apis cerana and Apis mellifera), which build multiple parallel combs inside enclosed spaces and readily adapt to managed hive systems.

Wild species: the open-comb builders 🔗

Apis dorsata – the giant honey bee 🔗

Apis dorsata, commonly called the rock bee or giant honey bee, is a honey bee of South and Southeast Asia. Workers are typically around 17-20 mm long, making them the largest of all honey bee species. Their nests are mainly built in exposed places far off the ground – on tree limbs, under cliff overhangs, and on buildings. These bees are essentially wild and have never been successfully domesticated for conventional hive management.

Each colony of A. dorsata consists of a single vertical comb made of workers’ wax suspended from above, and the comb is typically covered by a dense mass of bees in several layers. The nests vary in size, reaching up to 1 meter. A. dorsata can form dense aggregations at one nesting site, sometimes with up to 200 colonies in one tree, with each colony having up to 100,000 bees.

Apis dorsata is well known for its defensive aggression. When threatened, Apis dorsata colonies release alarm pheromones that can attract hundreds of worker bees to defend their nests. This makes them nearly impossible to handle safely without traditional knowledge. Though the species is not domesticated, indigenous peoples have traditionally used it as a source of honey and beeswax, a practice known as honey hunting.

Despite being a wild species, A. dorsata is an important seasonal honey source. Their colonies are highly migratory – individual colonies migrate between nesting sites during the transition from the rainy to dry seasons, occupying each nesting site for about 3-4 months at a time. This seasonal movement makes honey harvesting from this species unpredictable, and it requires specialized skills. A. dorsata, which forages during moonlit nights, has the most sensitive eyes among the four species , an adaptation that supports its extended foraging activity beyond daylight hours.

Apis florea – the little honey bee 🔗

Apis florea, the dwarf or red dwarf honey bee, sits at the opposite end of the size spectrum. The dwarf honey bee is unique for its morphology, foraging behavior, and defensive mechanisms. A worker is typically 7-10 mm in body length with an overall red-brown coloration. Like A. dorsata, it is a wild species that builds a single exposed comb, but the scale is vastly smaller.

Nests of A. florea are exposed and made up of a single horizontal comb that is built around and attached to tree branches or other support. Nests are often shaded and built in thickets, and are not uncommon around human settlements and manmade structures. This species constructs single exposed vertical combs typically 16-20 cm wide and 20-40 cm long, consisting of a few thousand bees per colony.

One distinctive behavioral trait of A. florea is how it communicates foraging information. Unlike other species, the two smallest species – Apis andreniformis and A. florea – dance on the upper surface of the comb, which is horizontal rather than vertical, and worker bees orient the dance in the actual compass direction of the resource to which they are recruiting.

Honey production in A. florea is very limited. Apis florea produces significantly less honey – around 300-450 g per colony – limiting its utilization for honey production compared to other species. As a result, this species is valued primarily as a wild pollinator rather than a commercial honey source. Apis florea is an efficient pollinator of both wild and crop plants and produces substantial amounts of pollen , making it ecologically important even if its honey yield is modest. Foragers typically operate within a limited range of up to 500 m from the nest, primarily due to the dwarf bee’s small body size constraining flight capacity and energy reserves.

Domesticated species: the cavity-comb builders 🔗

Apis cerana – the Asiatic honey bee 🔗

Apis cerana, also known as the eastern or Asiatic honey bee, is the primary domesticated species across much of South and Southeast Asia. Apis cerana is indigenous to Asia between Afghanistan and Japan, and occurs from Russia and China in the north to southern Indonesia. It builds a nest consisting of a series of parallel combs, similar in style to Apis mellifera, and nests within a cavity. This cavity-nesting habit makes it amenable to traditional hive boxes and manageable beekeeping practices.

Apis cerana is similar in size to Apis mellifera but tends to form smaller colonies with slightly lower honey yields. The Indian subcontinent is home to two domesticated species: the native honey bee (Apis cerana indica) and the European honey bee (Apis mellifera), as well as two wild species – the giant rock honey bee (Apis dorsata) and the dwarf honeybee (Apis florea). Apis cerana has been a backbone of traditional beekeeping in Asia for centuries, reared in hollow logs and wooden boxes long before modern hive technology was available.

One of A. cerana‘s most notable traits is its behavioral resistance to predators, particularly hornets. In Japan, where A. mellifera is vulnerable to local hornets and disease, the Japanese honey bee A. cerana japonica is used in its place. Apis cerana workers are known to form defensive “heat balls” around invading hornets, raising the temperature to a lethal level through coordinated wing vibration – a survival behavior not seen in A. mellifera.

In terms of honey production, A. cerana indica hives in India typically yield around 12-18 kg per year under good management conditions, as noted by industry sources covering Indian beekeeping practices. While considerably lower than A. mellifera, A. cerana honey is often darker with a more robust flavor profile and holds significant value in traditional medicine markets across Asia.

Apis mellifera – the European honey bee 🔗

Apis mellifera, the western or European honey bee, is by far the most widely kept and commercially important bee species in the world. The western honey bee was one of the first domesticated insects, and it is the primary species maintained by beekeepers to this day for both honey production and pollination activities. Its success is built on a combination of traits: large colony size, high honey yield, manageable temperament, and adaptability to a wide range of climates and hive systems.

Apis mellifera is indigenous to Africa, Europe, and the Middle East. It has been introduced to the Americas, Australasia, and much of the rest of the world. Today, Argentina, China, and Mexico have the largest honey industries in the world, and all are based on the introduced Apis mellifera honeybee. Apis mellifera usually builds its nest inside an enclosed space. The nest consists of a series of parallel combs, and there are typically 30,000-100,000 honeybees in one colony.

Its honey production capacity is what sets A. mellifera apart from all other species. This remarkable insect has transformed commercial beekeeping worldwide, producing an estimated 1.6 million metric tons of honey annually globally. At the colony level, A. mellifera hives under good management can yield 25-40 kg of honey per year in stationary operations, with exceptional colonies in optimal conditions exceeding this considerably – far above what any other Apis species consistently delivers.

European races of Apis mellifera have evolved in temperate climates with long, cold winters when little or nothing is in flower. They store honey to serve as a food supply to survive these periods of dearth when there is little or no food available. This honey-storing behavior is precisely what makes them so productive – they are biologically driven to accumulate large reserves, which beekeepers can harvest sustainably.

Beyond honey, A. mellifera is critical to global food systems as a pollinator. In large commercial orchards, insect pollination is typically enhanced to obtain marketable products and achieve high yields. One of the best examples is almond pollination in California, where more than 70% of all honey bee colonies in the USA are moved to orchards for the promotion of pollination. The scale of this pollination service underscores just how central this species has become to modern agriculture.

A comparative look: key differences at a glance 🔗

The four species differ meaningfully across several parameters relevant to beekeeping and ecology:

Body size: A. dorsata is the largest (17-20 mm), followed by A. mellifera (12-15 mm), A. cerana (similar to or slightly smaller than A. mellifera), and A. florea, the smallest (7-10 mm).

Nest type: A. dorsata and A. florea build a single exposed comb in open environments. A. cerana and A. mellifera build multiple parallel combs within enclosed cavities, making hive management possible.

Temperament: A. dorsata is highly aggressive and defensive. A. florea is relatively mild. A. cerana is moderately defensive with strong predator-avoidance instincts. A. mellifera varies by subspecies but is generally considered manageable, with many races bred specifically for gentleness.

Honey yield: A. florea produces the least (under 500 g per colony). A. dorsata, though wild, can produce 30-40 kg seasonally per colony. A. cerana yields roughly 12-25 kg per colony annually. A. mellifera consistently leads with yields of 25-60 kg or more under good management.

Domestication status: The only domesticated species of honey bee are A. mellifera and A. cerana, and they are often maintained, fed, and transported by beekeepers. A. dorsata and A. florea remain wild and are not suitable for conventional apiculture.

Ecological role beyond honey production 🔗

All four species are important pollinators, and this role extends far beyond what they contribute to beekeepers. Pollination and ecosystem sustainability are the chief services provided by honey bees, and they play a paramount role in the functioning of ecosystems and human lives. Wild species like A. dorsata and A. florea support forest ecosystems and native flowering plants in ways that managed hives often cannot replicate, particularly in remote or forested areas where commercial beekeeping does not reach.

Research from southern China illustrates the overlap between species. For the four species, their swarming periods, mating periods, the emergence of drones, and the nectar and pollen source plants highly overlap, leading to potential competition for the optimum mating space, nectar, and pollen. This has raised concerns about the rapid expansion of managed A. mellifera and A. cerana colonies and their potential impact on wild bee populations. Sustainable beekeeping requires awareness of these dynamics.

Why species selection matters in beekeeping 🔗

The choice of honey bee species is not simply about which one produces the most honey. Local climate, available flora, predator pressure, and the scale of the operation all influence which species will thrive and be manageable. By comparison, all tropical races and species of honeybees are far more likely to abandon their nest or hive if disturbed, because in the tropics they have a reasonable chance of survival – a behavior that complicates hive management in tropical regions.

In parts of Asia where hornet predation is a serious concern, the natural resistance of Apis cerana to such threats can outweigh its lower honey yield compared to Apis mellifera. In temperate zones with established commercial infrastructure, A. mellifera remains the dominant choice. Meanwhile, wild species like A. dorsata and A. florea continue to be harvested through traditional honey hunting in regions where domesticated beekeeping is not feasible or practical, as documented by FAO reports on bees and forest livelihoods.

Understanding the biology and ecology of each species also helps frame conservation priorities. Habitat loss, pesticide exposure, and climate change affect all four species, but in different ways and to different degrees. Protecting wild species like A. dorsata and A. florea means preserving the forest habitats and traditional honey-hunting practices they depend on, while ensuring that the expansion of managed A. mellifera colonies does not come at the cost of native bee diversity.

What do you think? Given that Apis mellifera dominates commercial beekeeping globally, do you think enough attention is being given to preserving and studying native species like Apis cerana and wild species like Apis dorsata? And with the growing demand for honey worldwide, how should beekeepers and policymakers balance productivity with biodiversity conservation?

References

1. https://www.fao.org/4/i0842e/i0842e03.pdf
2. https://farmonaut.com/asia/honey-farming-in-india-how-to-start-succeed-2025