Honey Production Trends: More Hives, Less Honey per Hive

Reviewed by Thomas B. · Last Updated September 30, 2026 · How we review

Honey production today looks meaningfully different than it did even a decade ago – not because the biology of a colony turning nectar into honey has changed, but because the tools, the research priorities, and the global map of where honey actually gets produced have all shifted. This article walks through where global production is trending, the technology genuinely reshaping day-to-day beekeeping, what research is quietly optimizing behind the scenes, and the consumer-demand shifts pushing producers toward more transparent, less processed honey.

Key Takeaways

• World honey output is rising, but more slowly than hive numbers: from 2000 to 2022 managed beehives grew 76.3% while honey production grew 45.8%, so average yield per hive fell from a 2005 peak of 22.5 kg to 17.9 kg.
• The world produced about 1.99 million tonnes of honey in 2024, per FAOSTAT’s December 2025 release; Asia supplies nearly half, and Africa is the fastest-growing region.
• The United States is moving the other way: 116 million pounds in 2025, yield per colony down from 80.2 lb in 1993 to 48.0 lb, and imports supplying about three-quarters of U.S. honey.
• Europe is not simply declining: EU honey output rose about 22% between 2014 and 2022.
• Sensors, Flow-style harvesting and breeding for disease resistance are real trends, but adoption depends heavily on scale.

Table of Contents

• Honey Production Trends in Numbers
• Where Honey Production Is Headed Globally
• Technology Reshaping Beekeeping
• What Research Is Actually Optimizing
• The Rise of Organic and Raw Honey
• The Real Tradeoff Between Yield and Colony Health
• Climate Pressure on Traditional Production Regions
• What’s Likely Next

Honey Production Trends in Numbers

Most discussions of honey production trends stop at “global output is growing.” The more useful trend sits underneath that headline: the world keeps adding hives faster than it adds honey. Using FAOSTAT data, Popescu and colleagues (2024) found that the number of managed beehives rose from 58.8 million in 2000 to 102 million in 2022 (+76.3%), while honey production rose from 1.25 to 1.83 million tonnes (+45.8%). Average output per hive peaked at 22.5 kg in 2005 and was 17.9 kg in 2022. The chart at the top of this page shows both trends side by side.

The United States shows the same squeeze more sharply. USDA’s Economic Research Service reported that U.S. beekeepers produced about 35% less honey in 2013 than 20 years earlier, with yield per colony falling from 80.2 lb in 1993 to 56 lb in 2012. By 2025 the USDA National Agricultural Statistics Service’s Honey report put U.S. production at 116 million pounds from 2.41 million colonies, an average of 48.0 lb per colony.

Why is yield per hive falling? The sources point to several causes rather than one. ERS links the U.S. decline to colony-health problems, commercial beekeepers shifting colonies toward almond pollination and away from honey flows, drought, and the loss of Northern Plains forage as conservation land was converted to crops. Heavier Varroa pressure matters too: the 2025 NASS report shows national spending on Varroa control and treatment rising from $16.6 million in 2024 to $22.2 million in 2025, a story we cover in what the 2025 USDA honey data shows.

Where Honey Production Is Headed Globally

Honey production has trended upward globally. The FAO’s World Bee Day 2025 analysis put world output at 1,894 thousand tonnes in 2023. Asia dominates: in 2022 it accounted for 48.2% of world production, followed by Europe (22.8%), the Americas (18.5%), Africa (8.5%) and Oceania (2%), according to Popescu et al. China is by far the largest single producer; our guide to the top honey-producing countries covers the country rankings and why they vary between sources.

Europe is often described as a region in decline, but the aggregate numbers do not support that. EU honey production rose from 235,000 tonnes in 2014 to 286,000 tonnes in 2022 (+21.7%), and EU beehive numbers reached 20.27 million in 2022. What European beekeepers do face is the same pressure seen elsewhere, including colony losses, pesticide exposure and weather volatility, which shows up in year-to-year swings more than in a steady fall.

The United States is the clearest counter-trend among major producers. USDA ERS found that over the 30 years to 2021, U.S. production fell by about 1.4% a year while imports grew by 7.6% a year. Imports overtook domestic production in 2005 and made up 74% of U.S. honey supplies in 2021, with India, Vietnam and Argentina supplying more than 71% of imported honey. For how that import dependence shapes prices and labeling, see how the U.S. honey industry works.

Africa had the highest growth rate of any region in the FAO’s 2025 analysis and now produces about 223,000 tonnes a year, roughly 12% of the world total, with real capacity for further expansion given sufficient investment in infrastructure, training, and market access – a pattern already visible in Ethiopia’s standing as one of the continent’s leading honey producers, built on a very different, far older beekeeping tradition than the more recently modernized operations driving growth in Asia and South America.

Technology Reshaping Beekeeping

Modern beekeeping increasingly leans on technology that would have been unrecognizable a generation ago:

• Flow Hive technology lets beekeepers harvest honey by turning a key, draining it from split-cell plastic comb without pulling frames. The brood box still needs regular inspections; see how the Flow Hive honey tap really works.
• Bee health monitoring now uses sensors tracking hive temperature, humidity, and bee movement, with some platforms using software to flag unusual patterns before they would be noticed at a manual inspection. Our smart hive monitoring guide explains what those sensors can and cannot tell you.
• Genetic research into bee breeding is targeting traits like disease resistance and productivity, aiming to build hardier commercial stock.
• Digital record-keeping and hive-scale platforms now let commercial operations track colony-level data across hundreds or thousands of hives at once, replacing paper logs with searchable historical records that make season-over-season comparisons genuinely practical for the first time.

What ties these technologies together is a shift from purely reactive beekeeping – responding to problems once they become visually obvious during inspection – toward a more proactive, data-informed approach, even though the fundamentals of colony biology and seasonal management remain unchanged underneath the new tools.

Adoption of these tools is genuinely uneven across the industry, and cost is a large part of why. Sensor-based monitoring and hive-scale record-keeping platforms tend to make the most economic sense for larger commercial operations managing hundreds of colonies, where the labor saved on manual inspection scales up enough to justify the upfront investment, while smaller hobbyist and sideline beekeepers more often stick with traditional visual inspection simply because the per-hive cost of instrumenting a handful of colonies rarely pencils out. That said, prices for basic sensor kits have fallen enough in recent years that a growing number of smaller operations are experimenting with at least partial adoption, typically starting with a single instrumented “indicator” hive rather than outfitting an entire apiary at once.

What Research Is Actually Optimizing

Beyond flashy hardware, a substantial amount of honey production research is quietly focused on the fundamentals: understanding exactly how nectar becomes honey (the enzymatic breakdown in a bee’s honey stomach, followed by evaporation and ripening in the comb), how foraging distance and flower type shape flavor and color, and how to optimize yield without compromising colony health. This research increasingly factors in the economic side too — studying how yield, cost, and market price interact to help beekeepers make better operational decisions, not just biological ones.

A meaningful share of current research also focuses on forage quality rather than forage quantity alone – not just whether bees have enough flowers within range, but whether that forage actually supports strong colony nutrition and healthy honey chemistry, a distinction that matters increasingly as monoculture agricultural landscapes expand in many regions and genuinely diverse floral forage becomes harder for colonies to find without deliberate habitat planning nearby.

International research collaboration has also grown, with researchers across different producing regions increasingly comparing notes on shared problems like Varroa resistance and colony losses rather than working in isolation within a single country’s research institutions. This cross-border comparison matters practically because it helps distinguish genuinely universal biological patterns from region-specific effects tied to local climate, forage, or management practices, giving individual beekeepers a clearer sense of which published findings are actually likely to apply to their own operation versus which ones are more regionally specific than they might first appear.

The Rise of Organic and Raw Honey

Consumer demand for organic and raw, minimally processed honey has grown steadily alongside broader health-consciousness trends. This shift is pushing more producers toward transparent sourcing and less aggressive processing — a trend that dovetails with the branding and marketing pressures facing honey businesses more broadly.

This demand shift has real downstream effects on how honey actually gets produced and sold, not just how it is marketed. Producers increasingly emphasize single-source or single-apiary honey rather than blended commodity honey, and terms like “raw,” “unfiltered,” and “single-origin” have moved from niche specialty-market language into mainstream retail shelf labeling. This mirrors the broader premium-honey-variety trend already visible in specialty markets internationally, where distinctive, traceable honey commands real price premiums over anonymous blended product – a genuine shift in what a meaningful share of consumers are willing to pay more for, not merely a marketing repositioning of the same underlying product.

It is worth being precise about what “raw” honey actually means in practice: it generally refers to honey that has not been heated beyond natural hive temperatures or finely filtered to remove pollen and other natural particulates, distinct from “organic” certification, which involves a separate, formal set of production and sourcing standards (see what makes honey production truly organic). These two terms are frequently used together in marketing but describe genuinely different things, and understanding that distinction matters for anyone trying to evaluate honey-marketing claims accurately.

The Real Tradeoff Between Yield and Colony Health

A recurring theme in modern honey production research is the genuine tension between maximizing yield and protecting long-term colony health – pushing a colony harder for more honey in a single season can come at a real cost to overwintering survival, disease resistance, and the following year’s productivity. This is not a new problem, but it is one that modern data collection has made considerably easier to study directly rather than relying purely on anecdotal beekeeper experience, giving researchers and commercial operations a genuinely more precise picture of where that tradeoff actually sits for a given colony, region, and forage pattern.

This tension plays out concretely in decisions beekeepers make every season: how much honey to leave for the colony’s own winter stores versus how much to harvest, how aggressively to split strong colonies for increased hive count versus letting them build reserves, and how to weigh a strong single-season yield against the colony’s odds of surviving to produce again next year. Commercial operations managing colonies at scale increasingly rely on aggregated seasonal data across many hives to make these tradeoffs more systematically, rather than relying purely on individual-hive judgment calls that vary considerably between operators.

The national numbers show where that balance has landed in the U.S.: fewer pounds per colony, with a growing share of commercial colonies earning their keep from pollination contracts rather than honey. For a hobbyist, the lesson is not to chase the old 80-lb average but to judge a colony against its own local flow and what it needs to overwinter.

Climate Pressure on Traditional Production Regions

Traditional honey-producing regions, including parts of Europe and North America, face real, documented climate-related pressure affecting bloom timing, forage availability, and overall colony stress – a genuine factor layered on top of the disease and habitat pressures already discussed. This climate dimension is part of why growth in global honey production has increasingly shifted toward regions with more stable, abundant forage conditions, rather than remaining evenly distributed across historically dominant producing countries, reinforcing the broader pattern that “global production trends” genuinely mask very different regional trajectories rather than describing one uniform story.

Shifting bloom timing specifically creates a genuine practical management problem for beekeepers: if flowering shifts earlier or later than historical seasonal patterns, colony buildup timed to older forage calendars can end up mismatched with actual available nectar, a real, documented phenomenon rather than a hypothetical future concern. Beekeepers in affected regions increasingly need to adjust management calendars based on observed local conditions each year rather than relying purely on traditional fixed seasonal timing, adding a genuinely new layer of operational complexity to an already demanding practice. We look at the practical side in how weather and climate affect honey production.

What’s Likely Next

The direction of travel is fairly clear: more sensor-driven hive monitoring, more genetic and disease-resistance research, and continued growth in regions with abundant, diverse forage, while yield per hive, not the number of hives, remains the number to watch. In the U.S., that means continued reliance on imports unless per-colony yields recover.

None of these trends operate in isolation – a beekeeping operation adopting sensor-based hive monitoring is often the same operation investing in genetic stock selection and paying closer attention to forage-quality research, since these tools and priorities reinforce each other in practice. The likely trajectory over the coming years is less a single dramatic transformation and more a continued accumulation of these incremental shifts: slightly better data, slightly hardier genetics, slightly more transparent sourcing, compounding gradually rather than arriving as one sudden industry-wide change.

For individual beekeepers, the practical takeaway is less about chasing every new tool and more about recognizing which of these shifts genuinely apply to their own scale and region. A backyard beekeeper managing two hives has little need for a commercial hive-scale monitoring platform, but the underlying research on colony health tradeoffs, forage quality, and climate-driven timing shifts applies just as directly to a two-hive backyard operation as it does to a two-thousand-hive commercial one.