2025-08-18 Pollinators in Peril: The Hidden Heroes of Our Food System
Pollinators in Peril: The Hidden Heroes of Our Food System
A bee gathering pollen - one of nature’s essential workers maintaining our food systems and ecosystems.
Every third bite of food you take exists because of pollinators. The apple in your lunch, the almonds in your trail mix, the tomatoes in your sauce—all depend on the tireless work of bees, butterflies, birds, bats, and countless other creatures that move pollen from flower to flower. Yet these essential workers are disappearing at alarming rates, victims of habitat loss, pesticide use, climate change, and disease. The collapse of pollinator populations doesn’t just threaten pretty flowers and honey production—it endangers global food security, economic stability, and the intricate web of life that sustains us all. At the Rissover Foundation, we support innovative pollinator protection initiatives that recognize these tiny creatures as the giants they truly are in maintaining life on Earth.
The Pollination Crisis
The numbers are staggering and sobering. In the past 20 years, the United States has lost over 50% of its managed honeybee colonies. Monarch butterfly populations have declined by 80% over the last two decades. Native bee species are going extinct before we even discover them. One in four bumblebee species in North America faces extinction. These aren’t just statistics—they represent the unraveling of ecological relationships millions of years in the making.
Consider what pollinators actually do: they facilitate the reproduction of 87% of flowering plants and 75% of crop species worldwide. Without them, our diets would consist mainly of wind-pollinated grains—corn, wheat, and rice. Gone would be most fruits, vegetables, nuts, and even chocolate and coffee. The economic value of pollination services globally exceeds $235 billion annually, yet we’ve created agricultural and urban landscapes that are increasingly hostile to the very creatures our food system depends upon.
The crisis extends beyond agriculture. Pollinators maintain wild plant communities that provide habitat for other wildlife, prevent soil erosion, capture carbon, and regulate water cycles. When pollinator populations crash, entire ecosystems begin to unravel. Forest understories change composition. Meadows lose their diversity. Food webs collapse as plants fail to produce the seeds and fruits that sustain birds, mammals, and other creatures.
Understanding Our Pollinators
Monarch butterflies depend on milkweed plants for their survival - a perfect example of the specialized relationships between pollinators and plants.
To protect pollinators, we must first understand their incredible diversity and specific needs. While honeybees get most of the attention, they’re just one species among thousands of pollinators, each with unique roles and requirements.
Native bees—including bumblebees, mason bees, leafcutter bees, and sweat bees—are often more effective pollinators than honeybees for many crops. A single mason bee can do the pollination work of 100 honeybees. These native species have co-evolved with local plants, developing specialized relationships that maximize pollination efficiency. Some plants can only be pollinated by specific bee species with the right body size, tongue length, or behavior patterns.
Butterflies and moths, while less efficient than bees at carrying pollen, play crucial roles in pollinating wildflowers and serving as indicator species for ecosystem health. The presence of diverse butterfly populations signals a healthy, pesticide-free environment with good habitat connectivity. Their caterpillars, while sometimes seen as pests, are essential food for baby birds and other wildlife.
Hummingbirds, our only avian pollinators in North America, specialize in tubular flowers that other pollinators can’t access. They’re particularly important in maintaining wildflower diversity in mountain meadows and desert ecosystems. Their high metabolism and constant need for nectar make them sensitive indicators of ecosystem productivity.
Bats pollinate over 500 plant species worldwide, including economically important crops like agave (used for tequila), bananas, and mangoes. Night-blooming plants depend entirely on these nocturnal pollinators, which navigate using echolocation and can travel great distances, connecting isolated plant populations.
Even flies, beetles, and wasps contribute to pollination, often focusing on flowers that other pollinators find unappealing. They’re particularly important in early spring when few other pollinators are active, and in arctic and alpine environments where bees are scarce.
The Perfect Storm of Threats
Pollinators face multiple, interacting threats that create a perfect storm of population decline. Understanding these threats is essential for developing effective conservation strategies.
Habitat loss remains the primary driver of pollinator decline. Since World War II, the United States has lost over 150 million acres of farmland and natural habitat to development. The remaining agricultural land has largely been converted to monocultures that bloom briefly if at all, creating food deserts for pollinators. In urban areas, manicured lawns and exotic ornamental plants provide little value to native pollinators.
Pesticide use, particularly systemic neonicotinoids, creates a toxic landscape for pollinators. These chemicals are incorporated into all plant tissues, including nectar and pollen, causing both lethal and sublethal effects. Even at non-lethal doses, pesticides impair pollinator navigation, foraging ability, reproduction, and immune function. The widespread prophylactic use of pesticides—applying them whether pests are present or not—ensures that pollinators encounter these toxins throughout the landscape.
Climate change disrupts the synchronized relationships between plants and pollinators. As temperatures warm, plants may bloom before their pollinators emerge from winter dormancy, or pollinators may emerge before flowers are available. Extreme weather events destroy nesting sites and food sources. Shifting climate zones force both plants and pollinators to migrate, but they may not move at the same rates or to the same places.
Diseases and parasites, spread through global trade and concentrated bee-keeping operations, devastate pollinator populations. The Varroa mite has destroyed countless honeybee colonies. Nosema fungi weaken bee immune systems. These problems are exacerbated by other stressors—pesticide-exposed bees are more susceptible to diseases, while poor nutrition from habitat loss reduces their ability to fight infections.
Light pollution disrupts nocturnal pollinators and interferes with the circadian rhythms of diurnal species. Noise pollution from traffic and industry masks the acoustic signals some pollinators use for communication and mate-finding. Air pollution degrades the floral scents that guide pollinators to flowers, reducing foraging efficiency.
Creating Pollinator Havens
A diverse wildflower meadow provides habitat and food sources for countless pollinator species throughout the growing season.
Despite these challenges, communities worldwide are creating pollinator havens that provide hope for recovery. These initiatives demonstrate that with thoughtful planning and community engagement, we can rebuild pollinator populations even in heavily developed landscapes.
Urban pollinator corridors are transforming cities into refuges for bees and butterflies. In Seattle, the Pollinator Pathway project connects parks and gardens with native plantings, creating a twelve-mile corridor of pollinator habitat through the city. Residents pledge to avoid pesticides, plant native species, and provide nesting sites. The corridor not only supports pollinators but also builds community connections and environmental awareness.
Agricultural operations are discovering that supporting pollinators improves crop yields while reducing input costs. California almond growers who maintain hedgerows and cover crops between orchards report higher nut yields and reduced need for rented honeybees. Prairie strips comprising just 10% of farm fields can support 100% of the pollination needs while providing additional benefits like erosion control and pest suppression.
School pollinator gardens are teaching the next generation while creating habitat. Students design and maintain gardens that include host plants for caterpillars, nectar sources for adults, and nesting sites for bees. These living laboratories teach biology, ecology, and environmental stewardship while providing critically needed habitat in developed areas. Schools report improved student engagement, better science scores, and increased environmental awareness among families.
The Power of Native Plants
Native plants like these coneflowers and black-eyed Susans provide essential resources for local pollinator species.
Native plants form the foundation of pollinator conservation. These species have co-evolved with local pollinators over thousands of years, developing relationships that benefit both partners. Native plants provide the right nutrients at the right times, support specialist pollinators that can’t use exotic plants, and require less water and maintenance once established.
A single native oak tree can support over 500 species of caterpillars—essential bird food—while a non-native ginkgo supports just five. Native goldenrod feeds over 100 species of butterflies and moths, while exotic butterfly bush, despite its name, provides nectar but no larval food, creating an ecological dead end.
Creating effective pollinator habitat requires more than just adding flowers. Successful gardens include plants that bloom from early spring through late fall, ensuring consistent food supplies. They incorporate host plants where butterflies and moths can lay eggs. They provide nesting sites—bare soil for ground-nesting bees, hollow stems for cavity nesters, and leaf litter for overwintering species. They avoid pesticides entirely, recognizing that a few aphids or caterpillar-chewed leaves are signs of a healthy ecosystem.
The aesthetic of pollinator gardens challenges traditional landscaping norms. Instead of manicured perfection, these gardens embrace a wilder beauty. Seed heads left standing provide winter food for birds and overwintering sites for beneficial insects. “Messy” areas of twigs and leaves create essential habitat. This shift in aesthetic values—from control to collaboration with nature—represents a fundamental change in how we relate to the land.
Community Science and Monitoring
Citizen scientists are playing crucial roles in understanding and protecting pollinators. Projects like Bumble Bee Watch, Journey North, and iNaturalist engage thousands of volunteers in monitoring pollinator populations, tracking migration patterns, and identifying conservation priorities.
These programs do more than collect data—they create constituencies for conservation. Participants develop observation skills, learn species identification, and become advocates for pollinator protection. Children who participate in monarch tagging programs become lifelong butterfly conservationists. Gardeners who monitor bee visitors become champions for pesticide-free landscaping.
Community science is revealing previously unknown aspects of pollinator ecology. Volunteers have documented new species ranges, discovered unknown host plant relationships, and identified important stopover sites for migrating pollinators. This distributed monitoring network can detect changes that professional scientists might miss, providing early warning of population declines or recovery.
Policy and Systemic Change
While individual and community actions are essential, protecting pollinators ultimately requires systemic change through policy reform and corporate responsibility.
Several states have passed legislation restricting neonicotinoid pesticides, requiring native plants in public landscaping, and funding pollinator habitat creation. Maryland became the first state to ban consumer use of neonicotinoids. Minnesota requires “pollinator-friendly” solar installations that include native habitat beneath panels. These policies demonstrate that pollinator protection can be integrated into broader land use and development strategies.
Corporate lands offer enormous potential for pollinator conservation. Companies managing millions of acres—utilities, transportation departments, and large landowners—are beginning to manage their properties for pollinators. Rights-of-way for power lines and pipelines, when planted with native species instead of maintained as mowed grass, can provide extensive pollinator corridors connecting fragmented habitats.
Agricultural policy reform is essential for landscape-scale pollinator recovery. Subsidies that encourage monocultures and pesticide use must be redirected toward practices that support biodiversity. The European Union’s ban on neonicotinoids in outdoor agriculture shows that large-scale policy change is possible when scientific evidence and public pressure align.
The Economics of Pollination
Protecting pollinators makes economic sense. The value of pollination services far exceeds the cost of conservation measures. Farmers who invest in pollinator habitat report reduced need for rented bees, improved crop yields, and additional income from ecosystem services like pest control and soil health improvement.
Urban areas with robust pollinator populations see increased property values, reduced urban heat island effects, and improved human health outcomes from green space access. The cost of creating pollinator habitat is minimal compared to the expense of hand-pollination—already necessary in some regions of China where pollinators have been eliminated.
Businesses are recognizing that pollinator conservation aligns with corporate sustainability goals and consumer values. Food companies dependent on pollinator-dependent crops are investing in habitat creation and sustainable agriculture. Retailers are expanding offerings of native plants and pollinator-friendly garden supplies. This market transformation, driven by consumer demand and corporate leadership, is making pollinator conservation mainstream.
Global Connections and Indigenous Knowledge
Pollinator conservation is a global challenge requiring international cooperation. Migratory pollinators like monarch butterflies connect countries across continents. Their protection requires coordinated conservation efforts across national boundaries, demonstrating that ecological health transcends political borders.
Indigenous communities worldwide have maintained pollinator populations through traditional land management practices. Indigenous managed forests support higher bee diversity than government-protected areas. Traditional polyculture farming systems provide year-round pollinator resources while producing diverse foods. Fire management practices create mosaic landscapes with varied habitats supporting different pollinator communities.
Learning from and supporting indigenous conservation practices offers pathways to pollinator recovery that benefit both biodiversity and cultural preservation. The Rissover Foundation prioritizes partnerships with indigenous communities, recognizing their role as knowledge holders and land stewards.
Hope on Wings
Despite the severity of the pollinator crisis, there are genuine reasons for hope. Monarch populations showed increases in recent years when favorable weather combined with expanded habitat. Urban bee diversity is actually increasing in some cities as residents create pollinator gardens. Young people are driving demand for pesticide-free food and pollinator-friendly practices.
Every garden matters. Every pesticide-free yard contributes. Every native plant provides resources. Every voice advocating for pollinators influences policy. The collective impact of individual actions, multiplied across communities and landscapes, can reverse pollinator declines.
The Rissover Foundation supports organizations working at all scales—from school gardens to international conservation initiatives—recognizing that pollinator protection requires action from backyards to boardrooms. We fund habitat creation, education programs, research initiatives, and policy advocacy that addresses the root causes of pollinator decline.
A Call to Action
The fate of pollinators is our fate. Their decline signals broader environmental collapse, while their recovery indicates ecosystem healing. Protecting pollinators isn’t just about saving bees and butterflies—it’s about maintaining the web of life that sustains human civilization.
You can make a difference. Plant native species. Eliminate pesticides. Leave stems and leaves for nesting. Support organic agriculture. Advocate for pollinator-friendly policies. Teach children to love and protect these essential creatures. Transform your yard, balcony, or community space into a pollinator haven.
The solutions exist. Traditional knowledge, modern science, and community action provide roadmaps to pollinator recovery. What’s needed is widespread implementation—millions of people creating billions of flowers supporting trillions of pollinators. This isn’t just possible; it’s already happening in communities worldwide.
At the Rissover Foundation, we envision landscapes where pollinators thrive—where gardens buzz with bees, meadows dance with butterflies, and the ancient partnership between flowers and their pollinators continues for generations to come. This vision requires transformation of how we design our communities, grow our food, and relate to the natural world. But the reward—a world alive with the beauty and abundance that pollinators provide—is worth every effort.
The pollinators have been here far longer than humans, shaping the world we inherited. Now their survival depends on us. Will we be the generation that watches them disappear, or the one that brings them back? The choice is ours, and we make it every day through our actions, purchases, and voices. Choose pollinators. Choose life. Choose a future where every garden is a sanctuary and every community is a haven for the small creatures that make our world possible.
Learn More
To learn more about pollinator conservation and how you can help, visit: