Bee Prepared! A Fall Checklist for the Winter Months Ahead

As the days grow shorter and the leaves begin to change color, autumn marks a time of transition for beekeepers. The summer honey harvest is over, and the focus shifts to preparing the bees for the winter months ahead. This is a crucial time for beekeepers, as proper preparation can mean the difference between a healthy, thriving colony in spring and a struggling one.

Here are the essential tasks that every beekeeper should undertake in the fall to ensure their bees’ winter survival:

Assess Colony Strength and Food Stores

The first step is to evaluate the overall health and strength of each colony. Look for signs of a healthy queen, plenty of young bees, and minimal pest or disease problems. Inspect the brood chambers to ensure there is enough brood rearing to maintain the colony population over winter.

Next, assess the food stores. Honeybees need ample honey reserves to survive the winter months when foraging opportunities are limited. A good rule of thumb is to have at least 60 pounds of honey per hive. You can estimate the food stores by weighing the hives or inspecting the frames. If the stores are inadequate, consider supplementing with sugar syrup.

Combine Weak Colonies

If you have any weak colonies, consider combining them with stronger ones. This will help to boost their population and increase their chances of survival. However, be sure to only combine colonies from the same apiary to avoid introducing diseases or pests.

Reduce Hive Entrances

Smaller hive entrances help to keep out predators and drafts. Use entrance reducers to adjust the size of the opening based on the colony size and weather conditions.

Monitor for Robbing

Robbing occurs when stronger colonies steal honey from weaker ones. This can be a major problem during the fall and winter when food sources are scarce. Be vigilant and take steps to prevent robbing, such as closing up any cracks or gaps in the hives and moving weak colonies to a separate location.

Keep Records and Observations

Throughout the fall season, keep detailed records of your inspections, treatments, and any other observations you make. This information will be valuable in the spring when you assess the health of your colonies and plan for the upcoming season.

Additional Tips for Fall Beekeeping:

  • Clean and repair hive equipment before winter arrives.
  • Ensure adequate ventilation in your apiary to prevent moisture buildup.
  • Protect hives from strong winds and snowdrifts.
  • Consider taking advantage of any local beekeeping workshops or classes to learn more about winter beekeeping practices.

Honeybee Diseases: Threats to the Hive and How to Fight Back

Honeybees, the tiny alchemists of the natural world, play a crucial role in our ecosystem. They pollinate crops, produce delicious honey, and contribute to biodiversity. However, these industrious insects are not immune to threats. Honeybee diseases can wreak havoc on hives, leading to colony collapse and impacting food security and the environment.

Common Honeybee Diseases:

  • American Foulbrood (AFB): This highly contagious bacterial disease affects brood (developing bees),causing larvae to die and turn into a sticky, foul-smelling mass.
  • European Foulbrood (EFB): Another bacterial disease, EFB primarily attacks young larvae, causing them to turn yellow and watery. While less contagious than AFB, it can still significantly weaken a colony.
  • Nosema: This fungal disease attacks the digestive system of adult bees, leading to dysentery and starvation. It can be spread through contaminated food or water.
  • Varroa Mites: These parasitic mites feed on the hemolymph (bee blood) of adult and developing bees, weakening them and transmitting viruses. They are considered one of the biggest threats to honeybee health globally.  Genetics, such as the VSH trait can help to keep these mites in check.
  • Sacbrood Virus:  This viral disease affects young larvae, causing them to turn into sacs of fluid. Infected larvae die and are removed by worker bees, leaving characteristic empty cells in the brood comb.

Treatment Options:

Fortunately, there are several methods to manage and treat honeybee diseases:

  • Antibiotics: Antibiotics, such as Tylosin, can be used to combat bacterial diseases like AFB and EFB. However, their use should be carefully monitored as excessive antibiotic use can contribute to antibiotic resistance.
  • Fungal Treatments: Fungicides, such as Fumagillin, can be used to treat Nosema, but their effectiveness can vary.
  • Mite Control: Integrated pest management (IPM) is crucial for Varroa mite control. This includes using chemical and non-chemical methods like miticides, sugar dusting, and drone brood removal, and more importantly, genetic factors, such as introducing the VSH trait into honeybee stock.
  • Queen Replacement: In some cases, especially with severe AFB infections, replacing the queen bee can be necessary to control the disease and rebuild the colony.
  • Good Beekeeping Practices: Maintaining strong colonies, providing adequate food and water, and practicing good hygiene are essential for preventing diseases and promoting overall bee health.

Early Detection is Key:

The key to successful disease management is early detection. Beekeepers should regularly inspect their hives for signs of disease, such as abnormal brood patterns, dead bees, or dysentery. Early intervention can significantly improve the chances of saving a colony.

Working Together:

Honeybee diseases are a complex issue requiring collaboration between beekeepers, researchers, and regulatory agencies. By sharing knowledge, developing new treatment methods, and implementing effective disease control measures, we can protect these vital pollinators and ensure the future of honeybees for generations to come.

Additional Tips:

  • Consult your local beekeeping association or extension service for guidance and support.
  • Consider joining a beekeeping club or online forum to connect with other beekeepers and learn from their experiences.
  • Stay informed about the latest research and developments in honeybee disease management.

The Worker Bee: A Labor Day Tribute to Nature’s Workforce

The phrase “busy as a bee” rings true when considering the remarkable worker bee. These tireless creatures are the backbone of the hive, responsible for its every function. Unlike the queen, whose sole purpose is to reproduce, worker bees are the ultimate team players, prioritizing the collective good above individual glory.

Interestingly, worker bees make up the vast majority of the bee population, often outnumbering the queen and drones by thousands. They are the engine that drives the hive’s success. In fact, during the colder months, when the queen and drones are inactive, the entire colony relies solely on the tireless efforts of the winter bees.

Another fascinating fact is that all worker bees are female. This societal structure is not unique to bees; insects in general tend to be matriarchal, with females playing dominant roles. Even more intriguing is that young worker bees, less than three weeks old, possess ovaries and can lay unfertilized eggs, although these eggs never develop into adult bees.

But what distinguishes a worker bee from the queen? Worker bees are smaller in size, have pollen baskets on their hind legs for collecting pollen, and possess a barbed stinger, unlike the queen’s smooth one. The barbed stinger serves a crucial purpose for the worker bee: it allows her to defend the hive, but at the cost of her own life. The queen, on the other hand, can sting repeatedly without dying.

The average lifespan of a worker bee is six weeks, although they can live longer during the winter months. During this short period, worker bees undertake a variety of tasks, which change depending on their age. Younger bees, known as house bees, focus on internal duties such as cleaning the hive and nurturing the larvae. As they mature, they transition to become field bees, venturing outside to gather pollen and nectar.

Worker bees exemplify the true spirit of Labor Day. They work tirelessly, often performing thankless tasks, yet their contributions are essential to the survival and prosperity of the hive. Just as we celebrate the contributions of human workers on Labor Day, we should also acknowledge the remarkable efforts of these tiny, yet mighty, creatures.

The Curious Case of the Baby Bee

Unlike a bird, which hatches from an egg, or a mammal, which emerges from a womb, a baby bee enters the world through a more unusual portal – a capped honeycomb cell. This sealed chamber becomes its nursery, where it undergoes a metamorphosis from egg to larva to pupa before finally emerging as a fuzzy, wide-eyed adult.

 

A baby honeybee, uses its tiny mandibles to chew its way out of its honeycomb cell, marking its entrance into the busy world of the hive. However, these newborns lack the ability to sting or fly, so they spend their initial days within the safe haven of the hive, slowly developing their skills and strength before joining the bustling activity of the adult bees.

Unlike other animals whose bodies continuously grow and develop throughout their lives, newly hatched honeybees are unique in that they emerge from their honeycomb cells fully formed. Their exoskeletons, the hard outer shells that provide structure and protection, are already fully developed at birth.  These baby bees, also known as callows, are far from the polished, hard-working insects we associate with honey production, however. Their appearance is a stark contrast to the seasoned bees buzzing around them. They often appear dazed and confused, their large eyes seemingly bewildered by the bustling hive. Their bodies, often lighter in color than the adults, are covered in a soft fuzz, giving them an endearingly awkward appearance.

This disoriented phase only lasts for a few precious hours, around 4-5. After that, the callow sheds its fuzzy coat and takes on the sleek, mature look of an adult bee. It joins the workforce, diligently contributing to the hive’s tasks, whether it’s foraging for nectar, tending to the young, or guarding the hive entrance.

The transformation of a baby bee is a testament to the remarkable adaptability and resilience of these tiny creatures. From their humble beginnings in a sealed cell to their vital role within the complex hive society, they offer a fascinating glimpse into the wonders of the natural world.

Deciphering the Language of Pollen Colors

For beekeepers, a captivating sight unfolds within the hive: a vibrant tapestry of pollen pellets, each boasting a distinct color. These colorful balls, diligently carried by returning foragers, tell a fascinating story – a story of the bees’ journey and the blooming flowers they encountered.

Just like a painter’s palette, the colors of pollen reveal the flowers the bees have chosen to visit. In some cases, the connection is readily apparent. When bright yellow pollen pellets arrive amidst a landscape awash with blooming wild mustard, the source is evident.

However, the bee world is not always so straightforward. Mysterious colors can intrigue even the most experienced beekeeper. Pollen, usually known for its yellow and white hues, can also surprise us with vibrant reds, greens, blues, oranges, grays, and even purples.

This diversity is especially noticeable in urban and suburban hives where bees have access to a wider variety of gardens and flowers. Unlike their rural counterparts who may encounter vast fields of the same species, urban bees flit from flower to flower, collecting a kaleidoscope of colors.

The reason for this single-color preference is quite simple. Individual bees, known for their meticulous nature, dedicate themselves to foraging from one type of flower at a time. This ensures efficient pollen collection and prevents the unwanted mixing of pollen from different species, which could compromise the colony’s reproductive success.

But the intrigue doesn’t end there. For the curious beekeeper, pollen colors become a tool for investigation. By carefully observing the incoming pollen and comparing it to the blooming flowers in the surrounding area, one can piece together a map of the bees’ foraging routes. This knowledge can be valuable for understanding the health and diversity of the local ecosystem and ensuring that the bees have access to a variety of nutritious pollen sources.

So, the next time you see a bee returning with a vibrant pollen pellet, remember that it carries a hidden story, waiting to be deciphered. Through the language of color, the bees invite us to embark on a journey of discovery, unveiling the secrets of their world and the beauty of the natural landscape that sustains them.

Why Bees Hang Out: A Summertime Phenomenon

As the summer sun reaches its peak and temperatures climb, beekeepers might notice a curious phenomenon: bees congregating outside the hive entrance, seemingly reluctant to go inside. While this behavior may initially spark alarm, it’s actually a completely normal beekeeping observation and nothing to worry about.

Imagine the hive as a bustling city during a heatwave. With a large population of bees packed together, the air inside can become stifling and uncomfortable. To combat this, bees instinctively seek cooler temperatures outside the hive. It’s their way of staying cool and ensuring the survival of the colony.

Bees are ingenious creatures, and they possess their own unique cooling system. They act like miniature swamp coolers, collecting water and regurgitating it on the underside of the hive lid. By fanning this water vigorously, they create a cool breeze that circulates throughout the hive. However, this process becomes less effective when the hive is overcrowded. By venturing outside, bees create more space for the cool air to flow, ensuring optimal comfort for everyone inside.

On late summer nights or days without a honey flow, bees can be found hanging out outside simply because they have nowhere else to be. When it’s too dark to fly or there’s no nectar to collect, the foragers stay home, contributing to a temporary overcrowding situation.

After a beekeeper harvests a honey super, the bees may find themselves with less space than usual. This can lead to temporary congestion and encourage some bees to hang out outside for a while.  Who knows, maybe bees simply enjoy basking in the warmth of a summer day just like we do!

While this behavior might seem unusual at first, it’s important to remember that bees are highly adaptive creatures with sophisticated instincts. Seeing bees hanging out outside the hive during the summer months is simply a normal part of beekeeping and not a sign of any underlying problem.

So next time you see your bees enjoying the summer sunshine outside their hive, remember they’re just practicing their natural cooling techniques or taking a well-deserved break. Let them be and enjoy the fascinating ways these amazing creatures adapt to their environment.

Which Direction Should Honeybee Hives Face?

In the United States, honeybee hives should ideally face south or southeast. This is because the sun rises in the east and sets in the west, so a hive facing south or southeast will receive the most sunlight throughout the day. This is especially important in the spring and fall, when the days are shorter and the nights are cooler.

The sunlight helps to warm up the hive, which encourages the bees to start foraging earlier in the day. It also helps to keep the hive dry and free of mold and mildew. Additionally, a hive that is facing south or southeast will be less likely to be exposed to strong northerly winds, which can damage the hive and make it difficult for the bees to fly.

Of course, there are other factors to consider when choosing a location for your beehives, such as the availability of food and water sources, the presence of predators and pests, and the local climate. But if you can, it is best to place your hives in a location where they will receive the most sunlight.

It is not absolutely critical that a hive face the south or east.  Here at Wildflower Meadows, we have some apiaries that are excellent for our bees, but due to their layout, don’t accommodate a southern exposure for all of the colonies.  While this is not ideal, the bees manage anyway.

Here are some additional tips for choosing a location for your beehives:

  • Place the hives in a level spot that is well-drained and protected from flooding.
  • Avoid placing the hives in direct sunlight all day long. Some shade in the afternoon is ideal.
  • Place the hives away from high traffic areas and areas where people and pets congregate.
  • Make sure the hives are accessible for inspection and maintenance.

If you are unsure where to place your beehives, it is a good idea to consult with a local beekeeper or beekeeping association. They can help you to choose a location that is best for your bees and your needs.

Honey vs. Sugar for Athletes: A Sweet Showdown

Athletes know the importance of fueling their bodies during grueling workouts and competitions. That’s why sports drinks and energy gels, packed with sugar, electrolytes, and other performance-enhancing ingredients, have become staples in nearly every athlete’s toolbox. But what if there was a natural, healthier alternative that could actually outperform these conventional options?

Enter honey. This golden nectar, beloved for its taste and versatility, turns out to be a hidden weapon in the athlete’s arsenal. While the global market for sports drinks and energy gels stands at a staggering $28 billion and $500 million respectively, honey offers a compelling combination of benefits that make it a serious contender for the top spot.

The Science Behind the Buzz:

Both sports drinks and energy gels typically rely on sucrose, a simple sugar that provides a quick burst of energy. However, this burst is often followed by a dreaded crash, leaving athletes feeling sluggish and depleted. Honey, on the other hand, throws a one-two punch with its unique composition. It contains both glucose and fructose, sugars that the body absorbs differently:

  • Glucose: This readily available sugar provides an immediate energy boost, just like sucrose. Think of it as the first responder in your body’s energy crisis.
  • Fructose: This slow-burning sugar is a marathon runner, delivering sustained energy over a longer period. It’s like having a built-in backup battery that keeps you going when the initial glucose rush fades.

This dual action of honey ensures a longer-lasting, more consistent energy supply compared to pure sugar. Studies have shown that honey can improve athletic performance in various ways, including:

  • Reduced fatigue: Honey’s sustained energy release helps athletes push harder for longer, delaying the onset of fatigue.
  • Increased endurance: By keeping blood sugar levels stable, honey prevents the dreaded energy crashes that can derail performance.
  • Improved glycogen replenishment: Glycogen is the body’s primary fuel storage for muscles. Honey helps replenish glycogen stores more effectively after exercise, aiding recovery.

Beyond the Basics:

Honey’s advantages extend beyond its sugar composition. Unlike sports drinks and gels, which are often packed with artificial ingredients, honey is a natural product. It contains small amounts of vitamins, minerals, and antioxidants that can further benefit athletes:

  • Vitamins: B vitamins, essential for energy metabolism, are naturally present in honey.
  • Minerals: Electrolytes like potassium, crucial for muscle function and nerve transmission, are found in honey.
  • Antioxidants: These compounds help combat exercise-induced oxidative stress and promote recovery.

And honey comes with its own delicious flavor, eliminating the need for artificial sweeteners and colorings.

DIY or Premade? You Choose:

The best part? You can easily incorporate honey into your sports nutrition routine. Make your own energy gels by mixing honey with a sodium-potassium supplement and store them in portable plastic bags. Or, opt for the convenience of pre-packaged honey sports gels like those from Honey Stinger, which offer a variety of natural and effective formulations.

 

So, the next time you reach for that sugary sports drink or gel, remember the power of the humble honeybee. This natural wonder offers a delicious, healthy, and performance-enhancing alternative that can help you achieve your athletic goals without compromising your well-being. Give honey a try, and you might just discover your new secret weapon for conquering your next workout or competition.

The Father of Modern Beekeeping

As we approach Fathers’ Day at Wildflower Meadows, we want to take this opportunity to honor the “Father of Modern Beekeeping.”

François Huber (1750-1831) was a Swiss naturalist and entomologist who and widely considered the father of modern beekeeping.  Huber’s most important contribution to beekeeping was the development of the “leaf hive.” This hive allowed him to observe the behavior of honey bees without disturbing the hive. The leaf hive consisted of a series of frames that could be removed from the hive without destroying the comb. This allowed Huber to study the development of the brood, the production of honey and wax, and the behavior of the queen bee.

Before François Huber invented the leaf hive in 1789, beekeeping was a much more difficult and haphazard practice. Beekeepers used a variety of hives, including skeps, log gums, and box hives. These hives were all fixed-comb hives, meaning that the bees built their combs directly on the walls of the hive. This made it difficult for beekeepers to inspect the hive or harvest the honey without destroying the comb.

The invention of the leaf hive by François Huber was a major breakthrough in beekeeping. The leaf hive was a movable-frame hive, meaning that the frames could be removed from the hive without destroying the comb. This made it much easier for beekeepers to inspect the hive, harvest the honey, and manage the colony.

Huber’s work paved the way for the development of modern beekeeping methods. His leaf hive was the precursor to the Langstroth hive, which is the most widely used hive today. Langstroth hive is based on the same principle as the leaf hive, with frames that can be removed from the hive without destroying the comb. This allows beekeepers to inspect the hive and manage the colony without harming the bees.

Huber’s observations revolutionized our understanding of honey bees. He showed that the queen bee is the only female that can lay eggs, and that the drones (male bees) are only used for reproduction. He also showed that the worker bees are responsible for all of the other tasks in the hive, such as gathering food, caring for the young, and building the comb.

Huber’s work was published in two volumes, “New Observations on Bees” (1809) and “Further Observations on Bees” (1814). These books were translated into many languages and became essential reading for beekeepers around the world.  Today’s beekeepers owe much to François Huber. His pioneering research laid the foundation for modern beekeeping and helped to make honey bees a valuable part of our ecosystem.

How Long Can a Honeybee Colony Live When a Queen Dies?

The honeybee hive is a complex and intricate society, with each member playing a vital role in its survival. At the heart of this society lies the queen bee, the sole female capable of reproduction. Her presence is essential for the colony’s continued existence, as she lays the eggs that will give rise to the next generation of bees.

When a queen bee dies, the hive enters a state of turmoil. The queen’s pheromones, which regulate the colony’s behavior, begin to fade, and the worker bees become agitated and confused. This disruption can have a devastating impact on the hive’s ability to function effectively.

In response to the queen’s demise, the worker bees initiate the emergency queen rearing process. They select a few worker bee larvae, typically between five and eight days old, and begin feeding them royal jelly, a special nutrient-rich food that is typically reserved for the queen. This special diet stimulates the larvae’s development and transforms them into potential queens.

The worker bees construct special queen cells, which are elongated and hang vertically from the honeycomb. Each potential queen develops within her own queen cell. Once the queens reach maturity, they emerge from their cells and engage in a series of “virgin flights” to mate with male drones.

The success of the emergency queen rearing process is crucial for the hive’s survival. If the new queen fails to mate or if she is killed by the other queens, the colony will eventually die out. This is because worker bees are sterile and cannot lay fertilized eggs, which are necessary for the production of female worker bees.

In some cases, the emergency queen rearing process may fail, and the colony may become queenless. In these situations, beekeeper intervention may be necessary to save the hive. Beekeepers can introduce a new mated queen from a reputable source, such as Wildflower Meadows, or they can combine the queenless colony with another colony that already has a queen.

Without a queen, the colony’s population will gradually decline as older bees die off and there are no new replacements. The colony may also become more susceptible to diseases and pests. In some cases, the worker bees may start to lay their own unfertilized eggs, which will only produce male drones. This will further hasten the colony’s demise.  Usually a colony can survive no longer than a few months without a queen.

The loss of a queen bee is a critical event for a honeybee hive. If the hive is able to successfully rear a new queen, it can survive and continue to thrive. However, if the queen rearing process fails or if the colony remains queenless for too long, the hive will eventually perish. Beekeeper intervention can play a vital role in helping queenless colonies survive, but ultimately, the fate of a hive without a queen is a delicate balance between chance and intervention.