This time of year, we are all evaluating our yards and landscapes as we prepare for spring. If you are like me, you want your landscape to do so much more. I want beautiful plants and season-long bloom. I want to choose plants that require less water. I want to provide a setting that attracts pollinators and wildlife of all forms. For those focused on gardening to attract pollinators, here is a checklist to follow to welcome more wildlife into your landscape.
Meet their basic needs
Generally, pollinators need three things: food (nectar and pollen), water and shelter. Native plants are more attractive to different pollinators than exotic (non-native) plants. These native pollinators have adapted to the life cycles of the native wildflowers and seek them out.
Choose location wisely
Native plants generally require less water and thrive with minimal attention if properly sited and established. Take the time to do your homework and choose plants that grow best in your soil and site conditions. Look for a sunny area (6+ hours of direct sunlight) with areas of shelter on the peripheries from strong winds. Design your landscape to include a water source. A simple bird bath with a stone inside so pollinators can land will suffice.
Design in clusters
A cluster of wildflowers of one species in bloom will attract more pollinators than individual plants scattered throughout the landscape. I like to plant in odd number groups such as three, five, or seven and include plants with purple, yellow, white, blue or violet.
Provide diverse nectar sources
Wildflowers come in a variety of shapes and sizes. This diversity is attractive to pollinators, too. There are over four thousand species of bees in North America. They are different in size, shape and they feed on different shaped flowers. Having a diversity of plants means more pollinators can benefit.
Wildflowers should be coming into and out of bloom throughout the growing season. With several plant species flowering at once, and a sequence of plants flowering through spring, summer and fall, you will sustain a range of pollinator species that fly at different times of the year.
Monarch Watch encourages the planting of milkweed species because monarch larvae feed exclusively on milkweeds. Milkweeds are so important to the life cycle of monarchs. For our area, they recommend common, swamp, butterfly, spider, and Sullivant milkweeds. We will have these milkweeds at our spring FloraKansas Native Plant Festival.
Is it important to provide habitat for bees and butterflies? Is it important to conserve water? Do you want more from your landscape than sporadic blooms and a haphazard design? Are conservation and stewardship efforts important to you?
Monarch populations have been dwindling. Bees are threatened by the environment, disease, pesticides, herbicides, and beehive decline. According to Monarch Watch, the United States consume habitat for monarchs and other wildlife at a rate of 6,000 acres a day, or 2.2 million acres per year. We could help offset these losses by creating a landscape that welcomes birds, pollinators and other wildlife.
If you have questions about landscaping with native plants, the Arboretum staff or volunteers can help you plan and design a landscape that will attract pollinators AND meets your expectations. Check with us during the spring FloraKansas Native Plant Festival. We offer species and varieties that pollinators love. No amount of effort is too small to have a positive impact.
I spent time this fall with a grand old burr oak near Hesston along the Middle Emma Creek in McPherson County that caught my eye a few years ago. I introduce to you the Stucky Oak.
A Relic of Belonging
This tree is a stately burr oak (Quercus macrocarpa) estimated conservatively to be at least 200 years old. I find fascinating the remnants of vegetation around us that predate European settlement. Large open-grown burr oaks, like untilled prairies, are vestiges of a time shaped by climate and thousands of years of evolution.
For approximately 10,000 years since the last ice age, a warmer climate and the rain shadow effect of the Rocky Mountains have shaped the vegetation here. Plant communities existing at the location of Kansas have consisted mainly of grasslands tolerant of frequent fires initiated by lightning and Indigenous people and grazing by bison. Trees had a hard time getting established here when they were being eaten or burned to the ground every few years. Thus, prairies dominate the state of Kansas.
Oak Savannas of Eastern Kansas
As distance from the Rocky Mountains to the east increases along with average rainfall, trees more easily establish. An ecotone identified as oak savanna (prairie with scattered open-grown oaks) marks the transition from prairies of the Great Plains to the forests of the eastern states. Burr oak was the most dominant tree in this Great Plains ecotone for reasons described below. For more information about oak savannas, click HERE.
Burr oaks in the eastern portion of the Great Plains were more likely to be found along stream corridors and especially on the east and north side of streams. Here, trees could survive better in the moister, more humid micro-climates and had some protection from prairie fires typically pushed in a east and north direction by the prevailing southwesterly winds. Fires that reached these locations were less frequent and of lower intensity as they typically would be backing against the wind. The Stucky oak along with a number of other old burr oaks dot the Stucky property located in one of these refuge areas just above the east bank of the Middle Emma Creek.
Open-grown burr oaks growing on the prairie certainly have a different growth pattern than trees growing in a forest. Forest-grown trees have to reach vertically as they compete with other trees for sunlight. Trees growing on the prairie don’t have to compete for light and thus more efficiently orient their branches horizontally as well as vertically to maximize photosynthesis.
A tree with a relatively more shallow and broad canopy, will allow more light to filter through its branches to the understory below. This unusual, mottled light micro-climate under burr oaks harbors unique assemblages of plants not specifically found in either prairies or forests. For more on the makeup of these rare plant communities, click HERE.
Fallen burr oak leaves are large, thick, rigid, curled, and irregularly shaped which keeps them aloft, and dry in the litter layer. In the spring, this persistent fuel easily burns and carries fire. Fires under burr oaks are hot enough to kill competing tree species that might invade its space, but not as hot as a grassland fire carrying more intense heat that could kill the burr oak.
The thick, corky bark of a burr oak helps protect the cambium layer from the intense heat that could kill the tree. This trait develops on the trunk and branches of burr oak after about 10 years of growth and helps the tree survive repeated burning. For more on the biological and ecological traits of burr oaks and oak savannas, click HERE.
Not Quite a State Champion
In 2019, I heard a presentation at the Kansas Native Plant Society Annual Meeting about the Champion Trees of Kansas Program. I’ve been curious how the Stucky Oak would stack up against the biggest trees in Kansas and recently got permission to take some measurements. Trees in the Program have a calculated point total based on the following formula: POINTS = trunk circumference in inches + height in feet + crown spread/4 in feet.
As you can see from the following table, the Stucky Oak fell short of the champion in St. George (near Manhattan) in total points. However, with a similar trunk circumference (diameter comparison is 5.6′ vs 6.5′) and larger canopy spread, the Stucky oak is only hurt in this scoring by its shorter stature. Take into consideration that a tree east of Manhattan has benefitted from more rainfall over its life and grown faster than the Stucky Oak. When doing so, it is not inconceivable to think that the Stucky Oak may indeed be an older tree.
A Sense of Place
For most houses we know, the choices of vegetation for landscaping are chosen by the people tending the home. The Stucky house location, I am guessing, was chosen because of the vegetation that already existed.
Matt Stucky is the third generation in his family that has lived in this house that has enjoyed this location and made memories here. He’s a farmer and land steward and when talking with him, you immediately sense the affinity he has for this tree. You can tell that he enjoys the thought that his kids swing under the shade of this oak and throw acorns at each other the way he did as a kid and the way his dad probably did too.
Matt fondly told me the story of an elderly couple from Oklahoma that stopped by some years ago to say they got married in their 20s under the giant oak in his yard. They were descendants of the original Classen Mennonite family that settled in the area in 1874. The couple showed Matt an old photo of the occasion. The tree in the photo looked basically the same as it does now. The couple returned many summers thereafter to sit in the shade of the oak for an afternoon.
History Transcending to the Future
The thought of natural phenomena that transcend generations of people and time move me. Whether it is seeing the same constellations in the skies above known to earth’s life forms since the beginning of time, stewarding prairies that have provided sustenance to residents of the Great Plains for thousands of years before me, or paying homage to an old tree known by families of Indigenous as well as European cultures, I find such things to be very powerful.
Equally as powerful for me is our responsibility to carry these stories forward. I challenge you to make a connection to stories related to the nightly traverse of Orion across the winter night sky, how a bison kill for the Quivira Indians of Kansas was like a visit to the grocery and hardware stores today, and how an oak can enhance the biodiversity of your home landscape. Embrace these connections and pass them along to the next generation.
With this spirit in mind, my friend, Lorna Harder, and I collected acorns from the Stucky Oak and hope to raise burr oak progeny. We would like to share these young trees with teachers who participate in our Earth Partnership for Schools Program and members who attend our plant sales.
The quote from Caecilius Statius, 220-168 B.C. goes “We plant trees not for ourselves, but for the future generations.” I think you know now what species I would choose.
“This oak tree and me, we’re made of the same stuff.”
The praying mantis is a medieval-looking predator of the garden that could just as well be a source of a horror film. Females are known to bite the head of their male partner during copulation to prevent his premature flight and then proceed to eat him after his job is done. If newly-hatched nymphs don’t find enough insects to eat shortly after leaving the nest, they start cannibalizing their own siblings. After watching my grasshopper-eating video at the end of this post, even some meat-eaters may swear off KFC for a very, long, time.
Praying mantises or mantids have compound eyes in freely moving heads on a pronounced neck and are the only insect that can “look over their shoulder.” Their front legs are muscular viselike appendages with spines held in front of them. They lie in wait, ambush their prey, and then hold and eat them alive.
Kansas has five different species of mantids. There are three native species and two introduced. Of our native species, two are small, uncommon, typically found in prairies, and described in Insects in Kansas (Salsbury and White) as follows:
For the remaining more common three species in Kansas (Carolina mantis, Chinese mantis, and European mantis), the following is a description of each provided courtesy of Missouri Department of Conservation (mantids) with bugguide.net links to photos of each individual species:
The combined length of the head and thorax is about as long as the abdomen.
The middle pair of legs are about twice as long as the antennae.
Females are essentially flightless, as their wings are relatively small — when folded, they do not extend as far as the abdomen tip; usually only about three-fourths of the way down the body.
Males may have the wings extend beyond the abdomen tip and may fly to lights at night.
There is a black patch on the outer pair of wings.
Examine the facial shield (the part of the face in front of the antennae and between the eyes: in this and other Stagomantis species, it is long and narrow (in the Chinese mantis, it is fairly square and has vertical stripes).
Egg cases are somewhat flattened, elongated, teardrop-shaped structures.
Chinese mantis (Tenodera sinensis). Nonnative. Very commonly encountered.
Tan to pale green; tan individuals often show a stripe of pale green on the side (it’s the borders of the green front wings)
Adult length 2¼–4 inches or more
Examine the facial shield (the part of the face in front of the antennae and between the eyes): in the Chinese mantis, it is fairly square and has vertical stripes (in our native Carolina mantis, it is long and narrow and lacks stripes).
Flies well, often attracted to lights at night.
Egg cases resemble tan toasted marshmallows. They are fairly round, about as long as wide, Ping-Pong-ball size; usually attached to twigs of bushes and small trees.
Native to east Asia. Introduced to North America accidentally in 1896. Later, imported on purpose in hopes of combatting insect pests. Among the many insects it consumes are our smaller native mantids, and it may be playing a role, in some regions, in the declining populations of the Carolina mantis. Because the Chinese mantis has been widespread in our country for so long, it is difficult to determine what its ecological impact has been on native ecosystems. Because of the females’ large size, they have occasionally been recorded eating small vertebrates, including small reptiles and amphibians and even hummingbirds, but these seem to be relatively rare occurrences that do not have a significant impact on populations of those species.
European mantis or praying mantis (Mantis religiosa). Nonnative; probably the least encountered of these three.
Yellowish green, cream-colored, or tan.
Adult length 2–3 inches
Diagnostic feature is a round black dot on the underside of the basal joint (coxa) of the forelegs. Sometimes this black dot has a white center. This spot can be hard to see when their “arms” are held together.
Egg cases are rather egg-shaped, distinctly layered structures.
Native to Europe. Introduced to North America accidentally in 1899. Later, imported on purpose in hopes of combatting insect pests. People may still introduce them occasionally.
For a visual comparison of the ootheca for these three species, HERE is an article with photos.
Once the female has been fertilized and consumes the male as a “last supper” of sorts, she develops and deposits her eggs to complete the life cycle before dying herself.
The female mixes the eggs with a frothy, protein-based material called spumaline and extrudes them onto a stem or building. This mass hardens to form a strong Styrofoam-like casing or ootheca that helps keep up to 200 eggs from drying out over the winter.
The nymphs that emerge from the ootheca in spring do not have different-looking larval stages like many other insects. They resemble adult forms throughout their entire juvenile development.
It would seem just as appropriate to name this creature the “preying” mantis. I have seen many instances of mantids munching on moths, butterflies, bees and more and recently captured video of a Chinese mantis eating a grasshopper (see end of blog).
Mantids are touted as biological control agents to get rid of pest insects in gardens and greenhouses. However, the effectiveness of this approach is questionable. While they efficiently prey on insects, a small release of mantids cannot possibly control all the insects that humans consider to be crop pests. Complicating their effectiveness, mantids also indiscriminately consume insects that we consider to be beneficial pollinators as well. And since nonnative mantid species are those most commonly distributed for biological control, some rightfully worry about the impact their continued introductions may have on smaller native mantid populations.
However you find and observe mantids in gardens and natural areas around you, observe and enjoy the habits of these fascinating creatures.
It happened again in 2020. The convergence of the peak of the September monarch southerly migration over Southcentral Kansas was met by a strong south wind, causing a “fallout” of monarchs at the Dyck Arboretum. Rather than waste energy fighting the headwind, monarchs find a place of refuge to rest and sip nectar. I would estimate that I’ve seen this phenomenon happen five times in the Arb since 2005 and this year’s was the most memorable for a few different reasons including big numbers, fallout location, and a predator story.
The monarch numbers I observed on Monday, 9/21/2020 seemed to me to be more stunning than I can ever remember. I estimated conservatively in a report to Journey North, there were at least 500 monarchs resting in the Arboretum that day. But after giving it more consideration and talking to a local monarch tagger, Karen Fulk, I wonder if that number was more accurately in the thousands.
Karen’s many years of efforts to tag monarchs in Hesston has her keenly in touch with monarch phenology and migration patterns. She reports that the peak of migration through south central Kansas is usually between 9/22 and 9/27. This year, however, she started seeing an uptick in numbers when a cold front and north wind jump-started the southerly monarch migration a bit earlier.
Karen usually tags 300 annually during the fall migration. This year, Chip Taylor at Monarch Watch, knowing that migration numbers were higher this year, suggested that taggers order extra tags. Karen increased her number to 500 tags and was able to apply most of those when the fallout began Friday 9/18/2020 through Sunday 9/20/2020. Arboretum member, Gerry Epp, further documented this event by posting photos of the fallout on his Facebook page, 9/20/2020.
With some repetition now in seeing these fallouts occur in the same place, I want to give some thought to why they congregate where they do at Dyck Arboretum. Karen usually tags at three places in Hesston based on the ability to catch and tag the maximum number in one place, and Dyck Arboretum is where she does the majority of her work. She estimated that 95% of her tagging this year happened at the Arboretum, based on seeing the greatest number of butterflies here.
I would hypothesize that they repeatedly congregate in the small 1/8th-acre area at the Arboretum amphitheater/pinetum for three reasons. One, they are seeking protection from the elements of wind and heat. This is about energy conservation. By escaping the wind and congregating in large groups on the north side of the dense hedge row of Osage orange trees, they are finding a microclimate that is cooler, more humid, and less turbulent than they would find on the south side.
Two, this location is next to a number of nectar sources. Why not rest where you can eat/drink too? Nearby native plant beds and a reconstructed prairie had a timely profusion of flowering from many species of the genera Helianthus (sunflower), Solidago (goldenrod), Symphotrichium (aster), Liatris (gayfeather), Eryngium (eryngo), and Heptacodium (seven son flower).
Three, a number of white pines in this location may resemble the trees of the Oyamel fir forests in Mexico. I don’t have any proof of this theory, but it seems plausible to me.
The newest wrinkle of this monarch fallout experience was the side story of five immature Mississippi kites. They were probably migrating with the monarchs and decided also to not fight the strong south wind. For a day and a half that I observed, this hungry bunch of pentomic predators took advantage of an abundant food supply. They hung out in the top of one of the white pines and took turns swooping through the monarch clouds to easily catch a snack.
Sometimes they missed catching their target, but usually, these agile insect catchers snagged their prey. Typically they would return to their perch to eat their catch, but sometimes they would eat in flight or “on the wing” as I hear experienced birders say. At one point, I counted approximately 120 monarch wings that had fluttered down to form what I’ll call a monarch confetti debris field. At four wings per monarch, that represented the carnage of about 30 monarchs. However, a number of wings had already been collected by onlookers, so it is not unreasonable to think that the number of monarchs preyed upon were double or triple what I saw.
This predator behavior was a surprising observation. Monarch larvae eat milkweed and sequester in the mature butterfly wings and exoskeleton the milkweed toxins called cardiac glycosides. These heart poisons can seriously affect vertebrate predators, including birds, and often cause them to vomit and subsequently avoid eating them further. However, these young kites not only ate monarchs all day Monday, but they continued their feeding frenzy the next morning. Either their stomachs weren’t too adversely soured, or the calories needed to continue this migratory journey were simply too important.
A Google literature review turned up no articles mentioning this habit of Mississippi kites eating monarchs. However, a follow-up conversation with University of Kansas biology instructor, Brad Williamson, helped me understand that this observation is not so irrational. He explained that the monarch population is not 100% toxic.
“The individual toxicity depends a lot on the particular milkweed species that hosted the larval stage. Asclepias syriaca (common milkweed) and Cynanchum laeve (honeyvine milkweed) are not nearly as toxic as A. verticillata (whorled milkweed). There is an entire range of toxicity and it makes for some great mathematical modeling questions–just how much toxicity (percent toxic) in the population is necessary for protection for the entire population? How much metabolic costs are there for monarchs trying to process highly toxic host plants? Turns out that only 25-40% of the population being toxic confers protection for the remaining population.” (I will include below a bibliography on monarch toxicity that Brad Williamson provided if any of you are interested as I am in learning more about this topic.)
There were a lot of interesting biological and ecological issues at play here with these monarchs and kites. It was just one more interesting natural history story with subplots to be observed by those of us living in the Monarch Flyway. Until I’m able to one day witness the hundreds of millions of monarchs wintering in the the Oyamel forests of central Mexico, I am completely content having a front row seat to this fascinating migration phenomenon right here in Kansas.
To assist the monarchs and their annual migration, plant milkweed host plants and other native nectar plants for adults. Check out our annual spring and fall Flora Kansas native plant sales.
Articles on Monarch Toxicity
Brower, L. P., and C. M. Moffitt. “Palatability Dynamics of Cardenolides in the Monarch Butterfly.” Nature 249, no. 5454 (1974): 280–283.
Brower, Lincoln P. “Avian Predation on the Monarch Butterfly and Its Implications for Mimicry Theory.” The American Naturalist 131 (1988): S4–S6.
Brower, Lincoln P., and Susan C. Glazier. “Localization of Heart Poisons in the Monarch Butterfly.” Science 188, no. 4183 (1975): 19–25.
Brower, Lincoln P., Peter B. McEvoy, Kenneth L. Williamson, and Maureen A. Flannery. “Variation in Cardiac Glycoside Content of Monarch Butterflies from Natural Populations in Eastern North America.” Science 177, no. 4047 (1972): 426–429.
Fink, Linda S., and Lincoln P. Brower. “Birds Can Overcome the Cardenolide Defence of Monarch Butterflies in Mexico.” Nature 291, no. 5810 (1981): 67–70.Malcolm, S. B., and L. P. Brower. “Evolutionary and Ecological Implications of Cardenolide Sequestration in the Monarch Butterfly.” Experientia 45, no. 3 (1989): 284–295.
Malcolm, Stephen B. “Milkweeds, Monarch Butterflies and the Ecological Significance of Cardenolides.” Chemoecology 5, no. 3–4 (1994): 101–117.
Malcolm, Stephen B., Barbara J. Cockrell, and Lincoln P. Brower. “Cardenolide Fingerprint of Monarch Butterflies Reared on Common Milkweed, Asclepias Syriaca L.” Journal of Chemical Ecology 15, no. 3 (1989): 819–853.
Nelson, C. J., J. N. Seiber, and L. P. Brower. “Seasonal and Intraplant Variation of Cardenolide Content in the California Milkweed, Asclepias Eriocarpa, and Implications for Plant Defense.” Journal of Chemical Ecology 7, no. 6 (1981): 981–1010.
Roeske, C. N., J. N. Seiber, L. P. Brower, and C. M. Moffitt. “Milkweed Cardenolides and Their Comparative Processing by Monarch Butterflies (Danaus Plexippus L.).” In Biochemical Interaction between Plants and Insects, 93–167. Springer, 1976.
Zalucki, Myron P., Lincoln P. Brower, and Alfonso Alonso-M. “Detrimental Effects of Latex and Cardiac Glycosides on Survival and Growth of First-Instar Monarch Butterfly Larvae Danaus Plexippus Feeding on the Sandhill Milkweed Asclepias Humistrata.” Ecological Entomology 26, no. 2 (2001): 212–224.
Terry and Carolyn Schwab live on 109 acres in Eastern Harvey County affectionately known by a former neighbor as the “Foothills to the Flint Hills.” While much of the county land has been converted to cropland over the last century, the Schwab property has remained in remnant prairie.
We received a grant in 2004 to identify and study more than 100 prairie remnants in South Central Kansas and to collect seed for our 18-acre Prairie Window Project prairie reconstruction project on-site at Dyck Arboretum. Until 2010, this work helped us develop a prairie landowner network through which we consulted with landowners and assisted them with their prairie management needs. It was during these years that I had the pleasure of first meeting the Schwabs. Ever since I have enjoyed observing the dedication they bring to being prairie restorationists and natural area enthusiasts.
Increasing Wildlife Diversity
The property was a moderately overgrazed cattle pasture when they acquired it in 1993. The Schwabs’ main goal as land stewards was to increase wildlife diversity through improved habitat and enhance their avid hobbies of bird-watching and fishing.
The remnant prairie and emergent wetland above and around the ponds on their land can consist of hundreds of species of grasses, wildflowers, sedges, and shrubs. High plant diversity translates to high wildlife diversity. Maintaining diverse herbaceous vegetation also serves as a good surface water filter that improves pond health. Terry and Carolyn knew that without grazing or other forms of grassland management, invasion of a handful of tree species (including nonnative species) would create a dense, and comparatively lifeless, forest canopy within decades. Plant species diversity would decrease and wildlife habitat would suffer. They needed to become prairie restoration land stewards.
Controlling woody species and removing nonnative wildflowers became top priorities for the Schwabs in their quest to improve wildlife habitat on their property. Their initial efforts were extensive and laborious. They cut Osage orange and eastern red cedar trees and manually dug out musk thistle. To maintain water levels in the ponds, they repaired holes in the dams and removed trees whose roots can compromise dam life.
They were able to open up the upland areas where they had successfully removed mature trees and restore contiguous areas of grass and wildflower-dominated prairie. In these areas, the Schwabs implemented a regular rotation of mowing and prescribed burning to control any further invasion of woody plants. They networked with a local fire department to help them do this. They found mowing and burning to be much less labor-intensive than manual tree removal and effective tools for long term tree management.
Carolyn and Terry have made great improvements in restoring the prairie and emergent wetlands with tree management, but they know that they cannot rest on their laurels. Mature, seed-producing trees on their land and neighboring properties make keeping up with tree invasion a continual challenge. In addition to maintaining a routine of mowing and burning, they continue to cut and treat a number of invading tree species including honey locust, Bradford pear, Osage orange, Siberian elm, eastern red cedar, and the shrub Japanese honeysuckle. They are also on the lookout for the highly invasive, noxious weed sericea lespedeza which is becoming increasingly present in the area.
Carolyn invests a great deal of time monitoring and reporting on the biodiversity observed on their property. Daily walks to document bird populations, track phenology of flowering plants, and photograph butterflies are all part of what she sees as being an informed land steward.
Regal fritillary butterflies are dependent on habitat including diverse, large tracts of prairie. Even though the Schwabs have been improving the habitat of their prairie, regal fritillary numbers seem to be declining in recent years on a landscape scale. Carolyn has been planting nectar plants like butterfly milkweed and regal fritillary host plants (prairie violets) in the landscaping around her house to try and further support regal fritillary numbers.
Carolyn is a top-notch birder. According to the Kansas Bird Listserv Database, a total of 329 species of birds have ever been documented as observed in Harvey County. Carolyn has seen more of these species (270) than anybody. And with easy access to 109 acres of prairie, wetland, woodland, and open water habitat, Carolyn has seen a whopping 232 of these species on her property!
A favorite experience of hers was witnessing a rare event on October 27, 2010. Eastern Harvey County is well east of the main sandhill crane migration flyway and seeing cranes there is not common. That night, however, the Schwabs observed 200+ sandhill cranes settle in for the night at their pond and enjoyed hearing their calls through the night. The cranes took off the next morning, but left behind a lasting memory for Carolyn.
Return of Butterfly Milkweed
The Schwab prairie restoration efforts are not only increasing the presence of grassland bird populations, but plant diversity as well. For years, they have not seen any butterfly milkweed on their property. But during the growing season of 2020, Carolyn reports that she has seen 20 plants.
Protection for the Future
The Schwabs are considering registering their property with the Kansas Land Trust to protect this native prairie in perpetuity. By establishing a conservation easement on the property, Terry and Carolyn would be establishing guidelines for future landowners to follow that would help protect the prairie, watershed, and the diversity of species therein.
Thank you, Carolyn and Terry for your important prairie restoration land stewardship and for being willing to share your story.
Last week while splashing around in a lake in Missouri, I noticed a shoreline of shrubs blooming and covered with pollinators. And wouldn’t you know, someone had just recently asked me to recommend some shrubs for wet areas in their landscape. (Yes, there ARE wet places in Kansas.) The first example was right in front of me.
Buttonbush (Cephalanthus occidentalis)
That shrub I saw blooming along the lake was buttonbush. This deciduous shrub is commonly found in moist to wet areas in full sun to partial shade. It can persist even when submerged for a time. The lustrous leaves shine in the sunlight. In early to mid-summer, the unusual, fragrant flower balls of this native shrub are magnets to a host of pollinators.
I have seen up to two dozen swallowtail butterflies on one plant when in bloom. It has a rounded-upright habit ultimately reaching 8-10 feet tall and wide. ‘Sugar Shack®’ is a shorter form that works well in the landscape. Fruit persists into winter, adding winter interest.
Elderberry (Sambucus canadensis)
Elderberries are under appreciated as landscape plants. Even in the wild they often blend into their surroundings. They are only noticed when they burst into bloom in early summer with dense clusters of white flowers. Pollinators seek out these flowers and cover the flat-topped bundles.
Consider planting elderberry shrubs in a drainage area or part of the yard that always floods – they thrive in excess water. Many people use the raw elderberries in jams, wines, and home remedies. ‘Adams’ and ‘York’ are two types of elderberry we recommend for heavy fruit production. You must have at least one of each for best fruiting.
Dogwoods (Cornus sp.)
Some of the shrub dogwoods (Silky Cornus ammomum, Cornus racemosa and Cornus drummundii) are good options for wetter areas in the landscape. Each is a little different in height, shape and habit. However, they all offer creamy-white blooms in late spring or early summer. While in bloom, these shrubs are teaming with pollinators. Birds and other wildlife will eat the fruit that is produced. ‘Red Rover’ is a compact selection of silky dogwood with attractive blooms, bluish fruit and nice fall color.
Black and Red Chokecherry, Aronia melanocarpa and Aronia arbutifolia
Possumhaw, Ilex decidua
Winterberry, Ilex verticillata cultivars and hybrids
Spicebush, Lindera benzoin
Arrowwood Viburnum, Viburnum dentatum
Blackhaw Viburnum, Viburnum prunifolium
Rusty Blackhaw, Viburnum rufidulum
As it turns out there are very few plants that will grow in soil that is constantly saturated. These shrubs are more tolerant of wet sites than others. Obviously, all plant roots require oxygen in order to function and grow properly. These shrubs persist in soil that lacks oxygen or is periodically flooded without succumbing to diseases and site related problems.
The prairie and its Flint Hills environment at Chase State Fishing Lake (CSFL) provide serious inspiration for native landscaping. The CSFL vegetation, wildlife, substrate below, and the sky above collectively compose for me the most beloved and iconic landscape of native Kansas.
During my many past visits to CSFL, I have usually had an agenda that involved leading a tour group, collecting seed, or gathering butterfly data. I have never taken the opportunity to climb the bluff, sit in the prairie, listen to the grassland birds, observe butterflies and other pollinators, and watch the clouds go by. But I did just that on a recent Saturday in late June.
In addition to providing inspiration for native landscaping, visits to CSFL bring me pure enjoyment. During this recent visit, the steady breeze – with not a tree to stop it – was a reliable Kansas air conditioner. It kept me from thinking about the sweat-inducing effects of the hot sun. The puffy clouds overhead kept changing the light patterns and offered ever-fresh visual perspectives. In the midst of a surreal pandemic experience, when home and work routines are turned upside down and inside out, sitting on that prairie bluff was like visiting an old friend.
The prairie wildflowers were plentiful during my visit thanks to a wet spring. The prairie plants we promote for the home landscape are in their native ecosystem here, with root systems that extend 10 to 15 feet into a matrix of limestone/flint/chert.
In addition to a stunning display of orange and red butterfly milkweed (Asclepias tuberosa), other flowering species included tuberous Indian plantain (Arnoglossum plantagineum), narrow-leaved milkweed (Asclepias stenophylla), smooth milkweed (Asclepias sullivantii), green milkweed (Asclepias viridiflora), serrate-leaf evening primrose (Calylophus serrulatus), white prairie-clover (Dalea candida), purple prairie clover (Dalea purpurea), Illinois tickclover (Desmodium illinoense), purple coneflower (Echinacea angustifolia), narrow-leaf bluets (Hedyotis nigricans), catclaw sensitive briar (Mimosa quadrivalvis), and prairie coneflower (Ratibida columnifera). In your garden, these plants will attract monarch larvae (milkweeds) and other pollinators, fix nitrogen (legumes) and provide year-round visual interest.
The insects observed on flowers (including 17 butterfly species I noted) were plentiful. Spending time identifying and documenting insect diversity makes me want to see more of them in my landscape. Diversity of wildlife species is directly correlated to the diversity of plants in an ecosystem. Increase the diversity of flora and you will increase the diversity of fauna!
In her last blog post, colleague Katie talks about the fun of identifying insects (The Mystery of the Orange Bug). I can certainly relate to the fun of trying to solve mystery insects.
The caterpillar pictured below is a new one to me. One of the identification tools and bio-networking platforms I’d like to use more is iNaturalist. Click HERE to see a couple of photos and help me with identification of this unknown (to me) caterpillar. One follower of this thread suggested the correct ID to be a salt marsh moth. I would have a hard time arguing otherwise.
If nothing else, spending time at CSFL in late June will inspire you to fill your landscape with butterfly milkweed. It is harder to grow the same remarkable eye candy of this favorite prairie plant in richer and less well-drained soils. But in spite of my 50% success rate (at best), I keep trying. Never before have I heard somebody say that a prairie reconstruction or garden has too much butterfly milkweed!
None of us will be able to completely recreate the open prairie of the Flint Hills in our urban landscapes. We can, however, take incremental steps in that direction with the plants we choose and the wildlife we attract. Visit Chase State Fishing Lake, absorb some if its good vibes, copy some of its elements with your plant selection choices, enjoy the wildlife viewing, and find new inspiration for native landscaping.
Click HERE for more of my thoughts about and photos from an earlier blog post about Chase State Fishing Lake.
As a lover of nature and all its small, crawly things, I often drop everything to observe and identify even the smallest bug. Much to the annoyance of my coworkers and volunteers, I just can’t give it up!
Learning to correctly identify the creatures around me brings a lot of fun and joy, but also:
Increases my scientific understanding of the world
Adds to my taxonomic and ecological knowledge
Builds empathy and compassion for the lives of smaller beings
Gives me a greater sense of place and familiarity in my Kansas homeland
Identifying the creatures around you is not always intuitive. Recently I found some small, orange, wiggly friends in the landscaping at my house. And so begins the mystery! Here are the steps and resources I always use to identify new-to-me bugs. Hopefully they can be useful to you as well!
Step One: Photograph
Make sure to quickly capture some detailed images of your friend. Life for a bug is fast paced — they are moving, flying, fleeing, eating or being eaten! You will need to have a good photo to refer to, as your search for answers may last longer than your memory.
Insect or other?
Start by discerning whether you are a looking at an insect or something else. The word ‘bug’ is used to generalize all small, crawly things, but there are important distinctions. Spiders, for example, are not insects. Roly-polys are not insects. Earth worms are not insects. Counting legs and body segments of your specimen can help you determine if it is an insect; true insects will have 6 legs and 3 distinct body segments.
If you are a beginner and don’t know much terminology, use the easy picture-based and shape-based search tool BugFinder. My mystery friend could not be found on this form. They had 6 well-defined legs but no obvious body segments. I thought perhaps I was looking at a caterpillar (still an insect!), so I visited DiscoverLife and answered their beginner-friendly caterpillar search form. In the past it has been tremendously helpful, but not this time.
Step Two: Where is it?
Where is this individual living? If you can identify its preferred habitat, you have a huge clue to discovering its identity. My mystery bug was living and feeding on Scutellaria resinosa, (also known as skullcap), but nothing else around it. Many insects have a host plant (a specific food plant that the babies must eat) or host plant family. By knowing the plant, I can work backwards and find out what insects are likely to feed on or interact with it. Sometimes these interactions are called faunal associations.
When searching the web to identify a new insect, remember to include the plant it was found on and the region of the world you are in. This will narrow your search. I love to use the maps at butterfliesandmoths.org to see what species have been spotted in my area.
Step Three: Ask and Post
If you have scoured the internet and all your favorite insect guidebooks, but still are stumped, it is time to visit BugGuide.net. They are “an online community of naturalists who enjoy learning about and sharing our observations of insects, spiders, and other related creatures.” There you will find a wealth of information on insects and their common whereabouts, but you can also post photos and ask questions of that expert group. They love to share their passion, and “to instill in others the fascination and appreciation…for the intricate lives of these oft-maligned creatures.” You may also find answers by posting a photo to your local naturalist Facebook groups.
And the bug is…
A shining flea beetle larvae, Asphaera lustrans! I finally found my answer by searching through the records at BugGuide.net and coming upon this page. While I can’t be sure, it was the closest match I could find. I also discovered that particular flea beetle hosts on Scutellaria, so I became even more convinced of its identity. I plan to post my photos and ask the experts on BugGuide to be sure.
Identifying wildlife and plants in your region is a lifelong pursuit; a never-ending puzzle. It can provide hours of stimulating entertainment for adults and children alike, and it will introduce you to like-minded folks who are also curious and engaged with world around us.
Next time you see a bug crawling across your porch or on your kitchen sink, don’t squish! Capture it, take a photo, release it outside, and begin the fun of unraveling its mystery!
Put Saturday, June 27, 2020 on your calendar and plan to help us count butterflies. The 21st Annual Harvey County Butterfly Count will consist of groups of butterfly enthusiasts dispersing to butterfly hot spots around the county to observe and count as many butterfly species as possible. Participant age or experience does not matter.
Whether you can immediately tell the difference between a pearl crescent and a gorgone checkerspot or you are unable to differentiate between a monarch and a moth, we encourage you to attend. The only requirement is a curious interest in finding and counting butterflies.
Harvey County Butterfly Count
The Harvey County Butterfly Count typically takes place on a single day in late June throughout a 16-mile diameter circle that includes Newton, Halstead, and Hesston. Emeritus biology professor, Dwight Platt, organized the first Harvey County Butterfly Count in 2000. Dwight has long been a champion of citizen science in South Central Kansas. As a Bethel College freshman in 1948, he helped organize the first Harvey County area Halstead-Newton Christmas Bird Count. As my major professor in the early 1990s at Bethel, Dwight inspired me to get active in citizen science, and many years later (in 2016) passed along to me oversight of the Harvey County Butterfly Count. Dwight plans to participate all day in this 21st Harvey County count at the age of 89.
Guidance for the Harvey County Butterfly Count protocol is provided by North American Butterfly Association (NABA). Their efforts to build and organize a robust data set is important to monitor trends in butterfly populations. Comparisons of the results across years can be used to monitor changes in populations and study the effects of weather and habitat change on North American butterflies.
By participating in such counts, you are contributing to research through citizen science. In the process, you are also increasing your scientific understanding, learning about environmental issues, gaining an appreciation for the natural world, and becoming a more engaged citizen. Thanks to Dwight, family members, and friends who encouraged me to do such things at a young age, citizen science shaped my choice of vocation and was personally transformative. I am hooked now and consider citizen science a fun hobby.
Common Butterflies Observed
In addition to sending all the data to NABA from each year’s one-day count, I have 20 years of Harvey County Butterfly Count data in a spreadsheet that can be organized in a variety of ways. Here are a few summary numbers:
Over the last 20 years, 85 butterfly species have been observed during the one-day Harvey County counts.
The average number of butterfly species seen over the last 20 counts is 50.8.
25 butterfly species have been observed nearly every year of the count (19 out of 20 counts).
Those 25 commonly observed Harvey County butterfly species are featured here for easy visual reference (photo credits). I lumped some of the similar-looking species together to help you more easily discern some of the subtle differences. Review them a few times and you will already start to develop a familiarity with the majority of butterflies seen on a typical count!
While the above 25 species are mostly what you will see and be counting, the real fun comes in finding the other 25 or so more rare species throughout the day. Searching for different types of habitat and flowers usually helps expand the diversity of species observed. Looking for certain host plants to find rare species is also part of the strategy.
What to Bring
The most important mode of preparation for a summer butterfly count is adjusting to the elements. Once you protect yourself from the sun with a hat and light cotton clothing and apply insect repellent around your ankles to repel ticks and chiggers, you can more easily turn your focus to the fun of looking for flowers and the butterflies they attract. If you simply plan to sweat and stay well-hydrated (bring plenty of water), you will find yourself enjoying a breezy summer day in Kansas.
Additionally, consider bringing binoculars (I also have close-range butterfly binoculars to lend you) and/or a camera with a zoom lens, but neither are mandatory. Each group will have a leader with an expertise in identification and a plan for sites to visit.
Let me know at firstname.lastname@example.org if you would like to attend for a half (3-4 hours) or full day (6-8 hours) and I will send you an email with more details.
Plan to enjoy part or all of a summer day counting butterflies and help make an important contribution to citizen science.
Do you remember a time, in summers past, when your porch light was covered in moths? Or maybe you remember moth carnage left on your windshield after a drive at night? With moth populations in steep decline, those sights are harder to come by.
Moths, like most insects, are not faring well in an increasingly human-dominated world full of pesticides, mono-culture crops, and urban sprawl. Especially troublesome for moths is artificial light at night.
True darkness has important implications for biological processes in humans and animals. For millions of years, life evolved with the sun, moon and stars as the only light source (with an occasional fire here and there). Within the last two hundred years, artificial, electric light has forever changed the night sky and the way we interact with darkness.
Start by keeping the outside of your house as dark as possible. Consider turning off outdoor lights after a certain hour. Then install native plants to feed your moth friends! Like butterflies, most moths drink flower nectar. Some are active by day, others prefer to feed at night. White or pale flowers are attractive to night feeding moths because they are visible in low light. Moths are also attracted to heavily scented flowers, and those that open late in the afternoon or evening.
Any garden designed for pollinators will support moths as well. Plants like Liatris spicata, Asclepias tuberosa, and Aster leavis are perfect for attracting all types of pollinators to the garden. But consider adding more white flowers to hopefully spur some moth activity. Native options available to order for no-contact pickup at FloraKansas include:
For patio containers, consider Gardenia or Datura.
Moths are fascinating creatures. Some are as large as hummingbirds, others as tiny as your pinky nail. Some moths evolved so closely with the plants they pollinate that they have become completely co-dependent! They have a special ecological role in our biome, and deserve our attention and conservation.