Advocating for bees with science & insight
Konstantin Bakharev
Scientist, beekeeper, and communicator dedicated to advancing pollinator health through research, field practice, and strategic storytelling.
A unique voice at the intersection of science and practice
I am a scientist, hands-on beekeeper, and strategic communicator with over 15 years of experience dedicated to honey bee health. My career is a fusion of academic research (PhD, postdoc on Nosema ceranae), practical apiary management across three continents, and high-level science communication for investors and donors. An engineered protocol and device for thermal bee treatment, enabling residue-free pest elimination.
I specialize in translating complex apicultural science—from Varroa resistance breeding to pathogen diagnostics—into compelling narratives and clear strategic content. My goal is to bridge the gap between cutting-edge research, on-the-ground beekeeping, and the global community that supports it.
I specialize in translating complex apicultural science—from Varroa resistance breeding to pathogen diagnostics—into compelling narratives and clear strategic content. My goal is to bridge the gap between cutting-edge research, on-the-ground beekeeping, and the global community that supports it.
Core competencies:
Science Writing & Communications • Research Program Management • Apiary Operations & Fieldwork • Stakeholder & Donor Engagement • Digital Media & Content Strategy
Science Writing & Communications • Research Program Management • Apiary Operations & Fieldwork • Stakeholder & Donor Engagement • Digital Media & Content Strategy
Demonstration of an optimized hyperthermia protocol for Varroa destructor control in Apis mellifera
See a complete, step-by-step field application of thermal treatment for Varroa mites. This video walks through the entire process using an improved chamber design, from preparing the bee sample in the cassette to the final step of returning the treated bees to the hive.
Key highlights include the importance of proper bee handling before and after the thermal core treatment, the chamber's function in maintaining a consistent temperature with gentle rotation, and the visual result of mite fall. This method, applied once per season in the broodless period, represents a effective tool for beekeepers seeking to reduce chemical inputs and support colony health.
Key highlights include the importance of proper bee handling before and after the thermal core treatment, the chamber's function in maintaining a consistent temperature with gentle rotation, and the visual result of mite fall. This method, applied once per season in the broodless period, represents a effective tool for beekeepers seeking to reduce chemical inputs and support colony health.
Field research with Prof. Büchler: varroa mite sampling & isolated breeding stock
Join me during field research at a German apiary with the renowned bee scientist, Prof. Dr. Ralph Büchler. You'll witness a precise diagnostic method: we anesthetize bees with CO2 and use a mechanical shaker device to separate and collect live Varroa destructor mites for laboratory analysis. The video concludes with a powerful shot from the isolated mating station on Norderney Island, showcasing the paternal colonies at the heart of Europe's selective breeding programs for healthier bees.
Observation hive reveal the secrets of bee life
This glass-walled hive at the Kirchhain Institute is a vital research and education tool. It allows scientists and students to observe colony behavior—including brood development, social interactions, and hygienic behavior critical for Varroa resistance—in real time without disturbing the bees.
Visit to Serbia - the country of flowing honey and moving apiaries
First flight after long winter
What is an ecological bee dwelling?
Many would answer: "a tree hollow." But how long can a single bee colony inhabit one hollow, and how large must it be for the answer to be at least one year? It turns out the tree must have a trunk at least 60 cm in diameter, and the cavity should be around 2 meters long. How many such trees do we have left? Even then, in natural conditions, bees will occupy such a hollow for only one or two years before abandoning it—once it becomes filled with combs, the old comb will create conditions for disease development.
The space will then be taken over by the wax moth (a unique insect and the only organism capable of digesting wax), which will destroy the old, dark combs. After a year or two, the hollow may be reinhabited. But how long can a tree with such a large hollow survive? It will likely break during the first strong storm, leaving an opening too large for bees to winter comfortably inside.
Therefore, the invention of movable combs by Langstroth—or what we now call the bee frame—can be compared to the discovery of penicillin. Just as penicillin saved countless lives, the movable frame revolutionized beekeeping, making it popular and commercial. It increased the number of bee colonies and introduced honeybees to regions where they were previously absent or where other species, such as Apis cerana (which store less honey), dominated.
This last point is not entirely positive, as it also led to the spread of new bee pests (as I have written about earlier). Following the movable frame, modular hive systems emerged, laying the groundwork for future discoveries in bee biology and genetics and enabling the transport of colonies over long distances.
Initially, hives were made of wood. But as the example of tree hollows shows, wood is a rather unstable material. Moreover, wooden hive production increases pressure on the timber industry, leading to deforestation, which is essential for maintaining the planet’s ecological balance. Additionally, the weight of a wooden hive with bees makes it difficult to move without special equipment.
Humanity, too, has long enjoyed the benefits of civilization, building homes from advanced, convenient materials.
For the reasons above—and because the author has extensive firsthand experience with medical-grade polyurethane foams—I would like to focus on the use of this material for hive construction. Its properties include chemical inertness, light weight, safety for animals, and, importantly, it is the best thermal insulation material known to humans.
Moreover, polyurethane foam hives are cheaper than their wooden counterparts and do not require logging for production. In medicine, polyurethane foams are used, for example, in intensive care units, where special materials made from it prevent bedsores in immobile patients.
Once cured, polyurethane foam has a surface hardness comparable to wood but weighs half as much. This makes beekeeping accessible to people with less physical strength, such as children and women.
If you still have doubts, consider that in Scandinavia and Northern Europe, foam hives have almost entirely replaced traditional wooden hives. Only in dry southern regions can classic wooden hives still be found.
The space will then be taken over by the wax moth (a unique insect and the only organism capable of digesting wax), which will destroy the old, dark combs. After a year or two, the hollow may be reinhabited. But how long can a tree with such a large hollow survive? It will likely break during the first strong storm, leaving an opening too large for bees to winter comfortably inside.
Therefore, the invention of movable combs by Langstroth—or what we now call the bee frame—can be compared to the discovery of penicillin. Just as penicillin saved countless lives, the movable frame revolutionized beekeeping, making it popular and commercial. It increased the number of bee colonies and introduced honeybees to regions where they were previously absent or where other species, such as Apis cerana (which store less honey), dominated.
This last point is not entirely positive, as it also led to the spread of new bee pests (as I have written about earlier). Following the movable frame, modular hive systems emerged, laying the groundwork for future discoveries in bee biology and genetics and enabling the transport of colonies over long distances.
Initially, hives were made of wood. But as the example of tree hollows shows, wood is a rather unstable material. Moreover, wooden hive production increases pressure on the timber industry, leading to deforestation, which is essential for maintaining the planet’s ecological balance. Additionally, the weight of a wooden hive with bees makes it difficult to move without special equipment.
Humanity, too, has long enjoyed the benefits of civilization, building homes from advanced, convenient materials.
For the reasons above—and because the author has extensive firsthand experience with medical-grade polyurethane foams—I would like to focus on the use of this material for hive construction. Its properties include chemical inertness, light weight, safety for animals, and, importantly, it is the best thermal insulation material known to humans.
Moreover, polyurethane foam hives are cheaper than their wooden counterparts and do not require logging for production. In medicine, polyurethane foams are used, for example, in intensive care units, where special materials made from it prevent bedsores in immobile patients.
Once cured, polyurethane foam has a surface hardness comparable to wood but weighs half as much. This makes beekeeping accessible to people with less physical strength, such as children and women.
If you still have doubts, consider that in Scandinavia and Northern Europe, foam hives have almost entirely replaced traditional wooden hives. Only in dry southern regions can classic wooden hives still be found.
Swarm in a tree hollow
Natural beekeeping
The greater Wax Moth
(Galleria mellonella)
(Galleria mellonella)
a secret of russian folk medicine
From a hive pest to a source of vitality
The Greater Wax Moth, also known as the honeycomb moth, is often viewed by beekeepers solely as a nuisance. Its larvae can damage combs and wax stores. However, in the traditions of Russian and broader Slavic folk medicine, this insect has been revered for centuries as a source of a unique and potent natural remedy.
This is the story not of a pharmaceutical, but of a historical folk preparation whose secrets have intrigued scientists from the time of Ilya Mechnikov to the present day.
A unique creature of nature
The biological uniqueness of the wax moth larva is its ability to digest beeswax—one of the most inert natural substances, which is indigestible to almost all other living organisms. To do this, the larvae produce a special complex of enzymes, including the enzyme cerrase. Throughout their development in the hive, the larvae feed on a concentrate of bee products: honey, pollen (bee bread), and wax. It is believed that this diet allows them to accumulate a rich complex of biologically active substances.
Historical roots, from "Golden Butterfly" to Mechnikov's Research
References to the use of wax moth preparations can be found in the practices of ancient civilizations. In Egypt and Ancient Greece, it was sometimes called the "golden butterfly," and its extracts were used to maintain strength and vitality.
In Russia, the use of tincture from wax moth larvae has a long history in folk practice. A significant scientific turn occurred thanks to the renowned Russian scientist, Nobel laureate Ilya Mechnikov. In search of means to combat tuberculosis (consumption), which was rampant at the time, Mechnikov turned to folk remedies. He hypothesized that the enzyme cerrase, capable of breaking down wax, could also affect the lipid-wax membrane of the tuberculosis bacillus (Koch's bacillus), thereby weakening it. This brought the folk remedy into the field of view of academic science.
Later, in the mid-20th century, the prominent Russian cardiologist Dr. Sergei Mukhin studied the extract for decades. His clinical observations indicated the potential of this folk remedy in supporting the cardiovascular system and overall vitality, especially in older age. His work gave a second wind to interest in this ancient elixir.
What makes up the extract? A natural complex
Modern research confirms that the extract from Galleria mellonella larvae is a rich natural complex, including:
· Amino acids. Contains 20 free amino acids, including all 9 essential ones that the human body cannot synthesize on its own. Particularly noteworthy are the branched-chain amino acids: valine, leucine, and isoleucine, important for metabolism and energy.
· Bioactive enzymes. The very cerrase that sparked Mechnikov's scientific interest.
· Micro- and macronutrients. Such as zinc, magnesium, potassium.
· Nucleotides and Sugars.
Application in the tradition of folk health practices
In the context of Russian folk medicine, wax moth tincture has been used as a general strengthening and supportive remedy. It is traditionally associated with:
· Supporting the body's own defenses.
· Helping to maintain vitality and energy levels.
· Promoting recovery after prolonged illness.
· Use in folk practices for supporting respiratory system health.
It is crucial to understand that we are talking about a folk remedy with a long history, not a registered medicine. Its effects are based on centuries of observational experience and historical scientific research, which today attracts the interest of scientists for further study. For example, research into the antimicrobial peptides of wax moth larvae is being conducted in laboratories in Germany, Switzerland, and Japan.
The Greater Wax Moth, also known as the honeycomb moth, is often viewed by beekeepers solely as a nuisance. Its larvae can damage combs and wax stores. However, in the traditions of Russian and broader Slavic folk medicine, this insect has been revered for centuries as a source of a unique and potent natural remedy.
This is the story not of a pharmaceutical, but of a historical folk preparation whose secrets have intrigued scientists from the time of Ilya Mechnikov to the present day.
A unique creature of nature
The biological uniqueness of the wax moth larva is its ability to digest beeswax—one of the most inert natural substances, which is indigestible to almost all other living organisms. To do this, the larvae produce a special complex of enzymes, including the enzyme cerrase. Throughout their development in the hive, the larvae feed on a concentrate of bee products: honey, pollen (bee bread), and wax. It is believed that this diet allows them to accumulate a rich complex of biologically active substances.
Historical roots, from "Golden Butterfly" to Mechnikov's Research
References to the use of wax moth preparations can be found in the practices of ancient civilizations. In Egypt and Ancient Greece, it was sometimes called the "golden butterfly," and its extracts were used to maintain strength and vitality.
In Russia, the use of tincture from wax moth larvae has a long history in folk practice. A significant scientific turn occurred thanks to the renowned Russian scientist, Nobel laureate Ilya Mechnikov. In search of means to combat tuberculosis (consumption), which was rampant at the time, Mechnikov turned to folk remedies. He hypothesized that the enzyme cerrase, capable of breaking down wax, could also affect the lipid-wax membrane of the tuberculosis bacillus (Koch's bacillus), thereby weakening it. This brought the folk remedy into the field of view of academic science.
Later, in the mid-20th century, the prominent Russian cardiologist Dr. Sergei Mukhin studied the extract for decades. His clinical observations indicated the potential of this folk remedy in supporting the cardiovascular system and overall vitality, especially in older age. His work gave a second wind to interest in this ancient elixir.
What makes up the extract? A natural complex
Modern research confirms that the extract from Galleria mellonella larvae is a rich natural complex, including:
· Amino acids. Contains 20 free amino acids, including all 9 essential ones that the human body cannot synthesize on its own. Particularly noteworthy are the branched-chain amino acids: valine, leucine, and isoleucine, important for metabolism and energy.
· Bioactive enzymes. The very cerrase that sparked Mechnikov's scientific interest.
· Micro- and macronutrients. Such as zinc, magnesium, potassium.
· Nucleotides and Sugars.
Application in the tradition of folk health practices
In the context of Russian folk medicine, wax moth tincture has been used as a general strengthening and supportive remedy. It is traditionally associated with:
· Supporting the body's own defenses.
· Helping to maintain vitality and energy levels.
· Promoting recovery after prolonged illness.
· Use in folk practices for supporting respiratory system health.
It is crucial to understand that we are talking about a folk remedy with a long history, not a registered medicine. Its effects are based on centuries of observational experience and historical scientific research, which today attracts the interest of scientists for further study. For example, research into the antimicrobial peptides of wax moth larvae is being conducted in laboratories in Germany, Switzerland, and Japan.
Artificial queens
new beekeeping reality
Queen rearing is the cornerstone of apiary selection work
Queen rearing is the most critical stage of selective breeding in beekeeping. This process relies on a fascinating biological principle: a female honey bee larva retains the potential to develop into either a worker bee or a queen until approximately the third day of its development, depending entirely on its diet.
This pivotal discovery, which unlocked the possibility of controlled queen breeding, is credited to American beekeeper and inventor Gilbert M. Doolittle. He perfected and popularized the method of grafting young larvae in the late 19th century (circa 1888), effectively standardizing the practice of artificial queen rearing.
The mechanism is as follows: if a larva younger than three days is placed in a special queen cell and continuously fed a rich diet of royal jelly, it will develop into a fully functional queen bee. This ability to manipulate the caste of the offspring became the foundation of modern bee breeding.
Artificial queen rearing is the primary tool of the bee breeder, allowing for:
Queen rearing is the most critical stage of selective breeding in beekeeping. This process relies on a fascinating biological principle: a female honey bee larva retains the potential to develop into either a worker bee or a queen until approximately the third day of its development, depending entirely on its diet.
This pivotal discovery, which unlocked the possibility of controlled queen breeding, is credited to American beekeeper and inventor Gilbert M. Doolittle. He perfected and popularized the method of grafting young larvae in the late 19th century (circa 1888), effectively standardizing the practice of artificial queen rearing.
The mechanism is as follows: if a larva younger than three days is placed in a special queen cell and continuously fed a rich diet of royal jelly, it will develop into a fully functional queen bee. This ability to manipulate the caste of the offspring became the foundation of modern bee breeding.
Artificial queen rearing is the primary tool of the bee breeder, allowing for:
- Controlled reproduction. Precise selection of parent colonies (both maternal and paternal) based on desired traits such as honey productivity, disease resistance, gentleness, or Varroa tolerance.
- Genetic testing. Large-scale production of daughter queens from a single selected mother for reliable performance testing.
- Propagation of superior genetics. Rapid multiplication and distribution of valuable genetic material throughout an apiary or to other beekeepers.
Bees behaviour
How the guardian bees react, when they loose connection with a queen
Varroa distructor
main bee enemy
A paradigm-shifting discovery in bee parasite biology
Scientists have discovered they have been wrong for decades about a fundamental detail in the biology of the notorious Varroa destructor mites—the infamous parasites devastating honey bee colonies worldwide.
For over half a century, it was believed these mites fed on the bee's hemolymph, the insect equivalent of blood. Groundbreaking new research now reveals that Varroa's primary food source is not hemolymph, but the fat body—a vital organ in insects responsible for nutrient storage, detoxification, immune function, and hormone regulation. This discovery not only revolutionizes our understanding of Varroa physiology but also opens promising new avenues for controlling this deadly pest.
Since the 1960s, Varroa destructor has spread globally from its Asian origin. Today, only apiaries in Australia and the Isle of Man remain free of this parasite. Varroa is considered a key contributor to colony collapse disorder (CCD), a phenomenon often attributed to the "three Ps": parasites (primarily Varroa), pesticides, and poor nutrition.
The "liver" of the bee
The fat body is crucial for bee health. It functions similarly to a vertebrate's liver, breaking down toxins, producing antioxidants, and regulating the immune system. By targeting and destroying this organ, Varroa mites leave bees vulnerable to other stressors.
Why the old theory never quite fit
The hemolymph-feeding theory originated from one of the first studies on Varroa in the early 1960s and was never critically re-examined. However, several clues pointed to a different truth:
The research team, led by Dr. Samuel Ramsey from the University of Maryland, conducted a series of elegant experiments:
This paradigm shift changes how scientists will approach fighting Varroa. Future treatments and breeding programs can now specifically target the mite's unique dependence on the bee's fat body, potentially leading to more effective and selective control methods.
Source: This groundbreaking research was published in the prestigious journal Proceedings of the National Academy of Sciences (PNAS).
This article synthesizes the latest scientific findings for the beekeeping community. A deeper dive into the history of Varroa and global control efforts can be found in a separate feature on our site.
Scientists have discovered they have been wrong for decades about a fundamental detail in the biology of the notorious Varroa destructor mites—the infamous parasites devastating honey bee colonies worldwide.
For over half a century, it was believed these mites fed on the bee's hemolymph, the insect equivalent of blood. Groundbreaking new research now reveals that Varroa's primary food source is not hemolymph, but the fat body—a vital organ in insects responsible for nutrient storage, detoxification, immune function, and hormone regulation. This discovery not only revolutionizes our understanding of Varroa physiology but also opens promising new avenues for controlling this deadly pest.
Since the 1960s, Varroa destructor has spread globally from its Asian origin. Today, only apiaries in Australia and the Isle of Man remain free of this parasite. Varroa is considered a key contributor to colony collapse disorder (CCD), a phenomenon often attributed to the "three Ps": parasites (primarily Varroa), pesticides, and poor nutrition.
The "liver" of the bee
The fat body is crucial for bee health. It functions similarly to a vertebrate's liver, breaking down toxins, producing antioxidants, and regulating the immune system. By targeting and destroying this organ, Varroa mites leave bees vulnerable to other stressors.
Why the old theory never quite fit
The hemolymph-feeding theory originated from one of the first studies on Varroa in the early 1960s and was never critically re-examined. However, several clues pointed to a different truth:
- Dry excrement. Varroa waste is very dry, unusual for an organism supposedly feeding on liquid.
- Nutritional imbalance. Hemolymph is not nutritious enough to support the mite's rapid growth and reproduction.
- Mouthpart anatomy. Varroa mouthparts are adapted for chewing and digesting soft tissue into a slurry, not for piercing and sucking fluids like true hemolymph-feeders.
The research team, led by Dr. Samuel Ramsey from the University of Maryland, conducted a series of elegant experiments:
- Feeding site preference. On adult bees, over 90% of mites were found feeding on the lower abdomen—exactly where the fat body concentrates after the bee matures. This indicated a targeted feeding behavior.
- Microscopic analysis. Close examination of bee wounds revealed digested chunks of fat body cells. As Dr. Ramsey vividly described, the mites were essentially making a "cream of honey bee soup."
- Fluorescent tagging. Bees were fed two dyes: a water-soluble (yellow) one for hemolymph and a fat-soluble (red) one for the fat body. When the mites fed, their guts glowed bright red—conclusive proof they were consuming fatty tissue, not the yellow-tinted hemolymph.
- Artificial diet test. In a final, decisive experiment, mites fed only pure hemolymph starved to death. Those given access to fat body tissue not only survived but successfully reproduced.
This paradigm shift changes how scientists will approach fighting Varroa. Future treatments and breeding programs can now specifically target the mite's unique dependence on the bee's fat body, potentially leading to more effective and selective control methods.
Source: This groundbreaking research was published in the prestigious journal Proceedings of the National Academy of Sciences (PNAS).
This article synthesizes the latest scientific findings for the beekeeping community. A deeper dive into the history of Varroa and global control efforts can be found in a separate feature on our site.
Get in touch with us
through social media or messengers