One of the largest hares in North American, the Black-tailed jackrabbit can grow up to 2 feet long and weigh from 3 to 6 pounds. In our neighborhood this is certainly true! We always love when these big hares move around our home, even if Luna is always keen to chase them away! This past spring a litter of four young Black-tailed jackrabbits (called leverets) spent a few weeks of their lives playing tag with each other around our gravel driveway and under the adjacent pinyon, juniper, oak, and mahogany. They seemed oblivious to our gawking and to Luna’s whining. Their comically clumsy antics were so funny to watch; we could count on a great show every day — either early in the morning or just before sunset. Then one day they were gone! For a week afterwards, we’d occasionally see them moving together through the subdivision ….. bounding after each other as they playing hide-n-seek. The last time we spotted them as a group was heading up towards our big community hilltop water tank. I like to think those now grown-up hares still come by the house once in a while to grab a bite to eat and say “Hi.” Who knows, they’re probably making babies of their own!
Here’s some things about Black-tailed jackrabbits you may not have known. All of the following was definitely new to me.
Population densities: The Black-tailed jackrabbit is a very common hare living in the western U.S. and Mexico. Their population densities typically range from fewer than 25 (when habitat conditions are poor) to nearly 500 animals per square mile (/mi2) (during peak years). You can count on numbers fluctuating every 6-10 years due to food supply, weather and disease. The New Mexico State University Extension Service reported when rangelands heavily infested with hundreds of hares/mi2, compete significantly with livestock for forage.
Habitat consisting of a mosaic of mixed-forbs, grasslands and shrubs are occupied by Black-tailed jackrabbits at elevations from sea level up to 10,000 ft. Because they don’t migrate (or hibernate) during winter, these hares use the same habitat within a 0.4–1.2 mi2 area year-round. Preferred habitat provides not only food, but shelter and cover.
One of the four of our young spring black-tailed jackrabbits – a leveret
Common habitat types include sagebrush, creosote bush and other desert shrub lands; Palouse, shortgrass and mixed-grass prairies; desert grasslands, open-canopy chaparral; oak and pinyon/juniper woodlands; early serial stage low- to mid-elevation coniferous forests. They are also common in and near crop lands — especially alfalfa.
Diet is composed of various shrubs, small trees, grasses, and forbs. Shrubs generally make up the bulk of fall and winter diets; grasses and forbs are eaten in spring and early summer. This pattern and plant species varies with climate.
Breeding, depending on location, typically peaks in spring, but may continue year-round in warm climates. The breeding season is variable depending upon latitude and environmental factors. In the northern part of their range (Idaho), Black-tailed jackrabbits breed from February through May. In Utah, they breed from January through July (over 75% of females are pregnant by April). The Kansas breeding season extends from January to August. Two peak breeding seasons corresponding to rainfall patterns and growth of young vegetation occur in California, Arizona and New Mexico. In Arizona, breeding peaks during winter (January–March) rains and again during June monsoons.
Two more of the four spring leverets – something has their attention off to their left
Birth: The female (doe) about to give birth doesn’t prepare an elaborate nest. She drops her young (leverets) in shallow excavations called forms that are no more than a few centimeters deep. The doe may line her form with fur prior to giving birth, but some just use existing depressions on the ground with no further preparation.
Young (leverets) are born fully furred with eyes open; are well camouflaged and mobile within minutes of birth. As all mothers (does) are inattentive (she gives birth and leaves them alone) the ability of leverets to hit-the-ground-running within minutes of delivery works perfectly for her once-a-day nursing schedule! The average litter size is around four, but may be as low as two and as high as eight in warm regions.
Leverets leave their birth form to find their own individual hiding spots just 2-3 days after they are born. They typically sit very still during the day, until it’s time to rejoin their mother and litter mates when she’s ready to nurse (either at dawn or dusk). Nursing occurs over a period of about 4-5 weeks until the leverets are fully weened.
Prey species: Black-tailed jackrabbits are an important prey species for raptors and carnivorous mammals, such as eagles, hawks, owls, coyotes, foxes, and wild cats. Rattlesnakes and bull snakes prey on the young hares, as do raccoons and striped skunks.
Parasites hosted by the hares include fleas, ticks, lice and mites; trematodes, crestodes, nematodes and botfly larvae are also found internally. Diseases affecting Black-tailed jackrabbits in the West are tularemia, equine encephalitis, brucellosis, Q fever and Rocky Mountain spotted fever. Jackrabbits infected with tularemia die very quickly.
A Cautionary Note: The high prevalence of parasites and disease in wild jackrabbits affects human predation. As a result, many hunters will not collect the hares they shoot. Those who do are well-advised to wear gloves if handling carcasses and, if intended as food, should cook the meat thoroughly to avoid contracting tularemia. Most jackrabbit hunting is done for pest control or sport.
Playing a game of “tag” in our driveway
Etymology
Scientific name: Lepus californicus, translates directly from the classic Latin word Lepus for “hare” — and californicus, a new Latin suffix and geographic identifier meaning “of or from California”, which indicates the region where the type specimen was first documented.
The Common name: “Black-tailed jackrabbit” is really a misnomer. Even though these plant-eating mammals look similar to true rabbits, taxonomically are actually hares. (This got me wondering what exactly are the differences between rabbits and hares —so I made thefollowing tablecomparing the two.) …… And now, back to the common name “Black-tailed jackrabbit.”
“Black-tailed” —— named, of course, for their black tail.
“Jackrabbit” —— this name is a more modern version of the mid-19th-century term “jackass rabbit,” given by early settlers who compared the animal’s very long ears to those of a donkey. You’ve got to admit, there is a lot of similarity in ear size!
And that’s all for now, folks!
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Do you live in a neighborhood with Black-tailed jackrabbits? If so, let me know!
If you’ve ever passed by a barren field, a somewhat rocky yet gentle slope, or a roadside waste area and noticed one or maybe many more very tall stems rising from a rosette of large fuzzy leaves, you were likely looking at Great Mullein (Verbascum thapsus), a non-native biennial plant of the Figwort family. Standing out as sentinels on landscapes across the U.S., this now-naturalized1 species was intentionally brought to North America by early European colonists in the 1700s primarily for its medicinal properties and as a fish poison.
Two years ago while wandering down the “Trash Can” trail, just below the little rocky earthen dam stood an 8-foot tall Great Mullein. This wasn’t just any ordinary mullein though. The top 2 feet of the flower stalk was crowned with one of the most uniquely contorted, bent and folded mullein crests I’d ever seen. Magnificent!
The “Trash Can” trail Great Mullein plant (long dried) with a very large, deformed flower stalk (a fasciation) that had bent from excessive weight.
The top-heavy mass, supporting scattered flowers and many hundreds of growing seed capsules had begun to dip and sway dangerously in the light Fall breeze. While watching and wondering what cause(s) of this rare and exaggerated growth, known as a “fasciation,” the heavy stalk moaned (really!). All I knew on that morning along that trail was that the stalk’s lean would soon take the entire plant to the ground.
Very happy to find this magnificent specimen!
Rushing to the rescue, I grabbed onto the lower third of the stalk, hoping to somehow rotate the top 180°. It was at that moment, when nothing moved, I realized just how heavy that flower stalk was. Then, as my eye blinked only once, the upper 2/3rds of the plant broke and came crashing down …… fasciation and all!
Trying my best to save the flower stalk from snapping off.This was a very tall plant!
Lying on the ground in a heap (mullein pieces, not me), Plan B began to materialize. Here was my chance to learn if Great Mullein “fasciates” genetically. So I collected the still-intact contorted and folded crown with its many ripened seed capsules, and proudly carried it home where it spent the upcoming winter hanging out in a 5-gallon bucket while the seeds dried, became dormant, and experienced a natural dormancy-breaking winter, preparing them for Spring planting. So certain was I that my mother plant had passed her “fasciation genes” on to her seeds, that the flowering plants of her progeny would fasciate too.
All my efforts were in vain ….. eventually the fasciated top of the flower stalk broke and crashed to the ground.
(Here’s an excerpt from my garden journal)
Spring 2025 ….. many minute seeds were scattered about our back yard.
Summer 2025 ….. 8 seeds germinated into petite 1st year rosettes
Winter 2025-2026 ….. 7 rosettes were robust enough to survive the winter
Late Spring 2026 ….. all 7 rosettes bolted, and flower stalks began growing; no sign of fasciation
Mid-Summer 2026 ….. woke one morning to find 3 had died — cause unknown (did they get too much hand watering?); only 4 flowering plants still alive; no sign of fasciation; Ladder-backed woodpeckers feasting on something inside countless seed capsules (some kind of insect?). (You can read about my mulleins’ visits from Ladder-backed Woodpeckers in my June 8, 2026 post here)
Of all the plants in our yard growing tall, with multiple flower stalks, this is the only one remaining alive at the time of this post.
Late-Summer 2026 ….. only 1 flowering plant still alive, still flowering, still plumping up seed capsules that are still feeding hungry woodpeckers (there’s so many capsules, they aren’t opening them all, so there may be seed left over for the next generation?)
Fall 2026 ……………….
Thinking back on the last two years, it seems I have a slight case of Mullein Madness, judging from my apparent obsession with the fasciation (fascinating) characteristics of Great Mullein,Verbascum thapsus! If that’s as weird as contorted flower stalks, so be it. I’ll confess to this tho….. many happy hours were not only spent watching my mullein grow, but in combing the literature and published research in search of answers to my questions while learning so much about such a remarkable plant.
Apologies in advance, but after reading the rest of this post (which is quite verbose), you too might just catch a case of Mullein Madness!
Great Mullein (Verbascum thapsus)
—aka—
greater mullein, common mullein, mullein dock, cowboy toilet paper, hig candlewick, Indian rag weed, bullock’s lungwort, Aaron’s-rod, hare’s-beard, ice-leaf feltwort, velvet dock, and flannel; woolly, velvet and blanket mullein; beggar’s, Moses’, poor man’s, Our Lady’s and old man’s blanket
Home, Sweet Home
Native to Europe, North Africa and Asia, Great Mullein is an introduced (a non-native) species in the Americas, Hawaii, Australia, New Zealand, and parts of Japan.
In the U.S., Great Mullein was imported very early in the 18th century and cultivated for its medicinal and Piscicide2 properties. By 1818, it had begun spreading so much that everyone thought it was native. By 1839, the species had spread as far west as Michigan; by 1876, it was growing in California. Today, Great Mullein is common in all 50 states. In Canada, it’s common in the Maritime Provinces, southern Quebec, Ontario and British Columbia, with scattered populations in between.
Happiness Was Watching My Mullein Grow
Life cycle: Great Mullein, a biennial (requiring two growing seasons to complete its entire life cycle), needs a winter dormancy period to flower. During its first year, a seed germinating in the spring or early summer develops a showy rosette of large leaves that grows from a taproot. After overwintering, the second year’s growth begins when a solid 1-inch diameter woody stem emerges from the rosette. This single pole-like stem, that can extend 6 feet tall or more, is covered in alternately-arranged leaves along the lower third of its length, becoming completely surrounded with a dense grouping of small flower buds that randomly bloom throughout the summer. Typically, only one stem forms, but if damaged during growth, branching may occur. After flowering and seed release the flower stalk(s) dries up and remains covered in dried brown seed capsules. Dried stalks and any seeds not scattered during fall may persist into the following spring or summer.
Habitat: Great Mullein grows in a wide variety of habitats, but thrives on well-lit disturbed soils, open meadows, and arid or overgrazed rangelands. Viable seeds, that can persist in the soil for hundreds of years, rapidly germinate in the spring soon after the ground warms up. While the mullein can also grow alongside existing plants, growth of the rosettes on bare soil is four to seven times more rapid than under vegetated conditions.
Flowers: Beneath the flower’s corolla (petals) is the deeply lobed, green calyx consisting of 5 hairy, triangular-shaped sepals. The bright golden-yellow saucer-shaped corolla (0.6–1.2 in) is formed from 5 slightly unequal petal lobes that are fused at the base. Attached on top of the petals are 5 stamens of two types: three shorter upper stamens covered in yellow/whitish hairs, and two longer lower stamens that are smooth. The pistil at the center of the flower consists of a superiorovary, a single slender green style, and a two-lobed stigma. Flowering lasts up to three months from early to late summer. Flowers begin blooming from the bottom of the tall stalk (spike) and progress irregularly upward. Each flower opens for part of a day and only a few open at the same time around the stalk. They typically open before dawn and close in the afternoon.
Great Mullein flowers. The lower flowers had closed the day before.
Pollination and Pollinators: Flowers are able to self-pollinate if they haven’t been pollinated by insects during the day. Even though many insects visit the flowers, only certain bees actually get the job done (such as halictid bees (usually dark black or brown, often metallic appearing sweat bees). Birds foraging for insects, such as the white-headed and ladder-backed woodpeckers, are known to feed from the seed capsules covering the flower stalk.
Seeds: Each tiny (<0.04 in) brown Great Mullein seed is marked with longitudinal ridges. Each flower produces a small, ovoid (0.24 in) capsule full of seeds that splits open with two valves when mature. Each plant produces hundreds of capsules that contain up to 700 seeds apiece, totaling anywhere between 180,000 or 240,000 seeds/plant. Seeds germinate in spring and summer on bare soil (or very close to the soil surface) when exposed to light, at temperatures between 10 and 40°C (50 and 104°F).
The seeds are generally too small for birds to feed on, although the American goldfinch has been reported to eat them.
(See the following section for more on seeds.)
Did You Know ………
They Call it Fasciation! If you’re familiar with Great Mullein, you may have noticed some flower stalks don’t always grow straight and tall. For some reason, some tops form weird shapes that may be flat or compressed, folded or ribbon-like, bulbous or crested. These plants have grown what’s called a fasciated flower stalk, the result of a rare developmental mutation. Scientists studying these unusual growths are trying to learn what triggers fasciation, but it remains a mystery. They have, however, identified several potential vectors that may disrupt normal growth:
Roy holding the fasciated end of the “Trash Can” trail Great Mullein.
Pests and pathogens: Insect feeding, mite activity, or bacterial infections (like Rhodococcus fascians) can damage or trick the growth tip into abnormal widening, though some field tests found their presence on fasciated mullein as well as on normal plants.
Environmental stress: Severe weather shifts, frost, or chemical/herbicide exposure during early stalk development may shock the growing tip into expressing fasciation.
Physical injury: Mechanical damage to the growing tip is known to disrupt normal elongation, though specific studies carried out on some Great Mullein plants noted that physical damage actually reduced or did not trigger fascination.
And Now! Everything You Wanted to Know About Great Mullein Seeds
Did you know ….. some seeds that germinate in autumn may jeopardize the life of the plant? Rosettes getting a late start must grow to at least 6 inches in diameter or they are likely to die in winter. Regardless, all first year plants that do survive overwintering and go on to complete their life cycle, die at the end of their second year, with some exceptions. Under the best growing conditions, some individuals flower in the first year, only to die the same year. And some individuals, especially in the northern parts of the range, require a longer growing period and don’t flower until their third year. Curiously tho, three-year plants often produce fewer seeds than biennial and annual ones. While year of flowering and size are linked to the environment, most other characteristics appear to be genetic (fasciation is an example).
Did you know ….. decades-old seeds can readily sprout from bare ground, or after forest and range fires, long after Great Mullein plants have died. This ability to quickly grow or even colonize disturbed areas may provide some soil stability, but it does interfer with the natural succession of native species.
Did you know ….. seeds don’t disperse far from a Great Mullein flower stalk? This means plants rarely establish in new areas without human intervention. Seeds scatter naturally when winds or animals move the stem causing 75% of the seeds fall within 3 feet of the parent plant; 93% fall within 15 feet.
Did you know ….. seeds are in the fossil record? Oh My! Discoveries of Great Mullein seeds have been reported from several important geological areas on the British Isles, including:
Cromer Forest Bed geological formation (Early to the early Middle Pleistocene [2 to 0.5 million years ago]) located in coastal areas of the Norfolk region of England;
West Wittering in Sussex in fossil-bearing clay formed during the Eocene epoch around 46 million years ago; and the
Ipswichian interglacial layers falling within the Middle Paleolithic period 130,000 to 115,000 years ago.
Great Mullein Plays Host to Many Visitors
The Good, the Bad, and the Questionable Pests and Beneficial Insects, and Diseases
Represented by 29 different families!
Pests: The majority are western flower thrips (Frankliniella occidentalis), Lygus species such as the tarnished plant bug (L. lineolaris) and various genera from the spider mite family (Tetrantchidae). Other common insects that feed exclusively on Verbascum spp. in general or V. thapsus (Great Mullein) in particular are: mullein thrips (Haplothrips verbasci), mullein moths (Cucullia verbasci), and common stalk borer moths (Papaipema nebris).
Beneficial Insects include predators, pollinators and specialized herbivores, such as:
Honey bees were busy collecting pollen and nectar from my Great Mullein flowers. The flower stalks were a-buzz every morning and into early afternoon when the flowers were open.
Mullein plant bug (Campylomma verbasci) is hosted primarily in summer and permitted to feed lightly on the plant while actively preying on orchard aphids, mites, and thrips.
Leaf bug (Dicyphus hesperus) is hosted year-round as its primary habitat and food source in return for helping to manage greenhouse and agricultural pests like whiteflies and spider mites.
Minute pirate bug (Orius tristicolor) hosted solely as a platform to hunt thrips and other small pests on the foliage.
Predatory mites (Galendromus, Typhlodromus and Amblyseius spp.) hosted year-round on plant surfaces to hunt harmful plant-feeding mites.
Wool carder bees (Anthidiumspecies) hosted as a casual visitor for purposes of gathering the dense, soft/woolly hairs from the plant’s leaves to line their nesting chambers.
Bumblebees, honeybees, hoverflies, butterflies hosted as frequent drop-in visitors throughout the growing season to gather abundant nectar and pollen from the flowers in return for pollination services. Special accommodations are always arranged for the following members of this visitor group known to successfully pollinate the flowers — generalist short- and long-tongued bees, including certain bumblebee species (Bombus spp.), honeybees (Apis mellifera), and assorted solitary bees (small native, wild bees).
This colorful beetle is two-spotted melyrid (dollops bipunctatus), a predatory insect on mites, aphids and other harmful insects. They were common on the huge leaves on my Great Mullein plants.
Diseases reluctantly hosted by Great Mullein include cucumber mosaic virus — the cucurbit powdery mildew (Erysiphe cichoracearum), and root rot (Phymatotricum omnivorum), along with Cercospora verbasciola; Phoma thapsi; Phyllosticta verbaciola; Heterodera maroni; Meloidogyne sp.; Mycosphaerella verbasciola; Ramularia veriabilis; Septoria verbasciola; and Oidium pyrinum. These microorganisms not only impact the health of the host, but may impact other desirable plants in the area.
A Confusingly Questionable Insect —
The Voracious Mullein Seed-Eating Weevil
A mullein seed-eating weevil adult. They were found everywhere on all the mullein plants in the yard. Very small weevils made the plant looked like it had been covered in very fine pepper!
Great Mullein was clearly tricked into hosting the mullein seed-eating weevil (Rhinusa tetra syn. Gymnaetron tetrum) by this demure, sometimes brown to nearly glossy-black beetle that promised to nibble only on leaves and a few seed capsules for the entire 45 days of its adult life. Little did mullein know that this weevil was hiding a secret. When it came to the end of her days (coinciding with flower blossoming) there was only one thing left to do … deposit all 150-200 of her fertilized eggs, two-by-two, into as many flowers as possible, she does this for over an 11-day period, and then she dies. But about 1 week following egg laying, the eggs hatch into larvae (grubs) and commence consuming most of the ~700 seeds in the growing seed capsule. When they’ve about exhausted their food supply, the larvae pupate and finally emerge as adults ~25 days later. The adults remain on the host mullein, munching uninhabited seed capsules and leaves, for 45 days until the next batch of females lays their next batch of eggs, and on it goes, until ….. when the growing season winds down and winter begins to blow in, adult weevils that haven’t completed their life cycle will tuck into a dried seed capsule and hibernate. And larvae that have entered the pupa stage of their lives will remain as such, overwintering until late spring when warmer weather triggers completion of their metamorphosis and the adults can safely emerge, ready to begin feeding on 2nd year flowering mullein.
Weevil Interlude
The mullein seed-eating weevil was accidentally introduced from Europe in 1876, to control the spread of Great Mullein. But back then and for many years following, the weevil was never intentionally used for that purpose. It happened “naturally” as the weevil spread throughout North America, making its living on Verbascum spp. it found on its journey. In more modern times, and because the weevil was never formally cleared as a released biological control agent, local land management and weed programs (such as in parts of the Pacific Northwest and Wyoming) informally recognize it as an already-established bio-agent since its larvae feed extensively on the seeds of Great Mullein. In some regions where the plant is a designated noxious weed, the weevil is viewed as a helpful naturalized helper; in other states—like Colorado—it remains unapproved for intentional release due to a lack of formal ecological impact studies.
The larvae of the mullein seed-eating weevil. By researching the Great Mullein, I learned it was these grubs the Ladder-backed woodpeckers were picking from seed capsules.
Bumper-to-Bumper Weevil Interlude
It seems that using a non-native insect to control a non-native plant is effective in significantly reducing the number of Great Mullein’s viable seeds to limit the plant’s spread. It is also a risky strategy, as many biological slip-ups have occurred in the past when a population of an introduced insect, having depleted its targeted food supply, develops an appetite for other, desirable-to-native-species plants. So far in the U.S., the mullein seed-eating weevil has only feasted on seeds of two Verbascum species—the Great Mullein (its clear favorite) and the equally-alien Moth Mullein (V. blatteria). Because the population of egg-laying adult female weevils doesn’t have enough eggs to lay in all of the hundreds and hundreds of mullein flowers, it’s probably unlikely they will run short of food in the near or far future.
To Weed, or Not To Weed
And What to Do With Unruly Great Mullein
In all areas where Great Mullein has been introduced, it’s recognized as a weedy species. Considered Invasive3 across much of the U.S., Great Mullein is a state-listed Noxious4weed in Colorado and Hawaii, and in several counties in Wyoming, Nebraska and Montana. In these states it aggressively crowds out native plants in dry or open ecosystems.
In other areas of the U.S., opinions on the ecological impacts of Great Mullein vary. Some land managers primarily view it as a short-lived pioneer species on heavily disturbed ground that eventually fades as native vegetation recovers; others classify it as a persistent invasive weed based on its seed longevity. Where agricultural crops are grown, impacts are generally considered minor — the ability of Great Mullein to outcompete most crops is limited because it’s shade intolerant and doesn’t survive tilling. Where it may become invasive, individuals are easy to remove by hand, even though populations are difficult to eliminate permanently.
Control Measures that Work: Mechanical methods that control the growth and/or spread of Great Mullein are the most effective. The best means is by hand pulling and hoeing, preferably followed by sowing of native plants. Regular cultivation is known to be adequate for the control of mullein. Tractor-mounted mowers or scythes can be used to trim the plants when they begin to flower. Repeated mowing prevents the flower stalk from bolting, but if mowing is discontinued then the plant will bolt and produce flowers anyhow.
Luna standing next to the rescued fasciated flower stalk, keep watch for thieves!
Not Worth the Time or Effort: All parts of the plant are covered in dense, star-shaped hairs (trichomes). Cattle and sheep avoid grazing the plant because biting into these hairs is irritating. Goats may find the plant edible, but studies are inconclusive. Use of contact herbicides is impractical since the hairs cause the liquid to roll off. Ground herbicides when taken up by the roots will damage or kill the plant, won’t kill seeds stored in the soil from previous years, and also denude the ground creating ideal conditions for growing more mullein. It would take decades of annual applications to slow, let alone prevent, new plants from growing. The use of seed-eating chickens has been proposed for mullein control, but has not been studied.
Multi-Use Mullein
Although commonly used in traditional medicine, today there are no FDA-approved drugs made from Great Mullein. Non-medicinal uses, past and present, are curiously varied.
Traditional Medicine
Dioscorides, an Ancient Greek pharmacologist and botanist, first recommended Great Mullein 2000 years ago as a folk medicine for pulmonary diseases. Leaves were smoked to attempt to treat lung ailments, a condition that in America was rapidly transmitted to Native American peoples.
The Zuni used the plant in poultices of powdered root applied to sores, rashes and skin infections. An infusion of the root was also used to treat athlete’s foot. Any preparations meant to be drunk had to be finely filtered to eliminate the irritating hairs.
Oil from the flowers was used against catarrhs (inflamed mucous membrane(s) in an airway or body cavity) colics, earaches, frostbite, eczema, and other external conditions. Topical application of various V. thapsus-based preparations was recommended to treat warts, boils, carbuncles, hemorrhoids, and chilblains. The plant has been used in an attempt to treat colds, croup, sunburn, and other skin irritations.
Great Mullein (V. thapsus) was in the United States’ 4th edition of the National Formulary from 1916 – 1936, stipulating that fluid extracts of dried leaves and flowers of the plant was approved as a pharmaceutical drug.
Otherwise Practical and Curious Uses
Roman soldiers are said to have dipped the flower stalks in grease for use as torches.
Romans extracted a yellow dye from the flowers to color women’s hair.
In some cultures, leaves have been used as wicks.
Native Americans and colonists lined their shoes with the plant’s leaves to keep out the cold.
As with many plants, Great Mullein was linked to witches, although the relationship remained undefined. At the same time, the plant was also widely believed to ward off curses and evil spirits.
As mentioned earlier, the seeds, which contain saponins, glycosides, coumarin and rotenone, are toxic to fish and have been widely used as piscicide since the plant’s introduction to the U.S. in the 1700s. Settlers threw the seeds and even the leaves into slow-moving water, allowing the chemicals to spread and stun the fish, causing them to float to the top making them easy to catch.
In modern times, Great Mullein is treated as an ornamental plant.
A first-year rosette turning into a 2nd year flowering plant.
Etymology
From the Greek word etymon, meaning
“literal meaning of a word according to its origin”
Scientific Name:Verbascum thapsus
Genus Verbascum: Originally described by Carl Linnaeus in 1753, Verbascum was derived from the classical Latin verbascum, used for the plant by Pliny the Elder (CE 23-79), Roman author, naturalist, scientist, etc. However, the word “verbascum” was widely believed to be and accepted as a corruption of “barbascum,” from “barba” meaning “beard.” The genus name Verbascum, back then (as it does today), refers to the dense, hairy coating on the leaves and the bearded appearance of the plant’s stamens.
Species (specific epithet) thapsus: First used by Theophrastus (BC 371-287), Ancient Greek philosopher and naturalist, for an unspecified herb from the Ancient Greek settlement of Thapsos, near modern city of Syracuse, Sicily ….. OR ….. it may have come from the ancient Tunisian city of Thapsus.
A first-year rosette turning into a 2nd year flowering plant. Would these huge leaves make excellent shoe liners!?
Common Name: Great Mullein
“Great” was used in the plant’s common name to distinguish it from other more diminutive plants of the same genus Verbascum. “Great” refers to the plant’s tall stature.
“Mullein” evolved from Middle English “moleyne,” by way of the Anglo-French word “moleine,” which came from the Latin root “mollis,” meaning “soft.”
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Wake up Now! Unless you’ve caught a case of Mullein Madness Fever!
Regardless, hope you found this interesting!
(I promise to write a shorter post next time)
As always, thanks for stopping by!
The End!
1Naturalized – a non-native plant species brought from other regions that now reproduces and spreads on its own without human help, but doesn’t aggressively overrun native habitats.
2Piscicide – a chemical substance that’s poisonous to fish. Piscicides are primarily used to eliminate a dominant species of fish in a body of water, done as the first step in attempting to populate the water body with a different fish species. They are also used to combat parasitic and invasive species of fish.
3Invasive – a non-native species introduced to a new-to-it ecosystem where it spreads rapidly, outcompetes native species, and causes economic or environmental harm. Because it lacks natural predators or diseases in its new home, it easily takes over natural habitats, yards, farms, etc.
4Noxious – any plant legally designated by a government agency as harmful to agriculture, public health, wildlife, or property. These plants grow aggressively, spread fast, and lack natural controls. While many are non-native invasive species, some native plants can also be classified as noxious if they cause severe damage.
Such dashing little birds, Ladder-backed Woodpeckers are fairly common along the trails of the Albuquerque foothills, easily spotted as they fly from one prickly cholla to another. They feed on insects living under the leather-like hide of the cactus’ trunks, somehow avoiding getting speared by thorns. Ladder-backed Woodpeckers are also at home among our neighborhood stands of pinyon pine and oak. For several years I’ve heard their high-pitched “Peek” call as they fly amongst the trees, but hadn’t caught a glimpse of one to confirm a sighting ….. until this summer!
While walking into the back yard one day I came to an abrupt stop at the gate. A mere 20 feet to my right came a “Peek” call —- and then another “Peek.” Turning only my head, ever so slowly, in the direction of that familiar call, I saw a male Ladder-backed Woodpecker creeping up and around the 5 foot tall vertical flower stalk of a mullein plant (Verbascum thapsus) growing along the fence line. And not 1 foot away from him was his partner busy working her way up another mullein flower stalk. They were both so intent on drilling into bug-filled seed pods, they seemed not to notice me! Here was my Ladder-backed Woodpecker confirmation!
After watching their activity for 10 minutes or so, I tip-toed away to fetch Roy and my camera, confident the birds had enough seed pods to keep them busy. Upon our return, they were still excitedly feasting and calling to each other, and I was able to capture a few dozen photos.
Like clockwork, the pair returned every day for a week! It was such a joy to watch them both ….. mostly they got along — like a newlywed couple. But there were times ….. like when one or the other of them dared to feed from the same mullein flower stalk, at the same time! Quite a squabble took place; both birds shouting rapid-fire “PEEK – PEEK” with wings wildly flapping all while they hitched themselves up and around the stalk to the very tip! Peace returned by default when the first bird reaching the top ran out of flower stalk, and surrendered to their mate by flying away to another mullein. Because there were only a few mullein plants with a supply of delicious bugs, competition and arguments between the two birds was frequent. But I never knew who the winner would be until each round was won.
A Bit About Looks
Ladder-backed Woodpeckers have a square head, a small but straight chisel-like bill, short neck, and stiff tail that they lean against for support. Both sexes are 6.3 – 7.1 inches long and have a 13 inch wingspan. Color-wise, they are black-and-white above arranged in neat stripes like ladder rungs on their backs, and a more checkered pattern on their wings. Underparts are buffy white or grayish, stippled with black. Their buffy white face is broken by black lines that extend from the bill and eye and join at the neck. Males have mostly red crowns from their eyes to back of the head; females have blackish crowns with a buffy patch in front of the eyes.
A female Ladder-backed probing a mullein flower bud for insects.
A Bit About Behaviors
Usually staying hidden by foliage, Ladder-backed Woodpeckers are readily detected by their “Peek” calls or rapid drumming on trees while searching for food. As they move about from tree-to-tree, you’ll notice their short duration flight pattern is rapid and undulating. Breeding pairs of this woodpecker form or re-form in winter or early spring.
A Bit About Foraging, Diet and Related Behaviors
Like most woodpecker species, the Ladder-backed male typically forages on tree branches and trunks; females forage on smaller plants and bushes. They find insects by pecking, picking, probing, prying, gleaning, flicking, or tapping their bill at bark or other spots that might be hiding insects. Ladder-backed Woodpeckers can be quite acrobatic, twisting and turning, balancing with the wings open, and hanging upside down in pursuit of food as they hitch and hop upwards on a tree or other plant. Their ability to prop themselves in any position on just about any plant to feed is due to their stiff tails and agile feet.
A male Ladder-backed drilling furiously into a mullein flower bud. The birds make lasting holes in the buds as they open the sepals in search of insects.
Although Ladder-backed Woodpeckers eat mostly insect larvae, they do eat some adult insects. Prey include wood-boring beetles, leaf worms, ants, caterpillars, and true bugs (hemipterans). Occasionally they will eat cactus fruit.
Unlike larger woodpecker species, the Ladder-backed rarely digs deep into the wood, they do not cache (store) food or capture flying insects in midair. They rarely feed on the ground.
A Bit About Range and Habitat
Ladder-backed Woodpeckers are permanent residents (not migratory) within their range which includes: central and eastern parts of NM through extreme southeast CO; southern, western and northwestern AZ; extreme eastern and northeastern tip of the TX panhandle; extreme southeast CA. Ladder-backed Woodpeckers are found throughout most of Mexico and in parts of Central America.
Typically, these woodpeckers live in very dry habitats such as deserts, desert scrub, thorn forest, and pinyon-juniper woodlands from the lowest elevations up to about 7,600 feet.
A Tiny Bit of Fun Facts
Like most woodpeckers, the Ladder-backed have their four toes arranged in an X-pattern, with two set forward and two backward (known as “zygodactyl”). This adaptation allows them to cling to vertical surfaces and even upside down on horizontal surfaces more easily and firmly than perching birds (which have three toes set forward and one backward).
A male Ladder-backed showing how his X-shaped or Zygodactyl toe arrangement and stiff tail allows him to cling and prop against this vertical mullein flower stalk.
The oldest known Ladder-backed Woodpecker was a male who was at least 4 years, 6 months old when caught and released in Texas.
A Bit About Common Names
The “Ladder-backed” name comes from the pattern of black-and-white markings climbing the bird’s back in neat stripes like ladder rungs, all the way up to the base of their heads.
The “Cactus Woodpecker” (D. s. cactophilus) is an old name for a subspecies of the Ladder-backed Woodpecker that inhabits the southwestern United States and adjacent Mexico. Calling them “Cactus Woodpecker” was fitting as they frequently forage on and nest in various species of cacti.
A Bit About Scientific Names – Etymology
Dryobates scalaris and Dryobates scalaris cactophilus
The genus Dryobates, named by the German naturalist Friedrich Boise in 1826, is from the Greek compound word δρυο-βάτης : ‘woodland walker’; from δρυο (-drus) meaning “woodland,” and βάτης (-bátēs) meaning “walker.”
The species scalaris comes from Latin, meaning “of or pertaining to a ladder” or “a flight of steps.”
The subspecies cactophilus was likely a slight misspelling of cactophily (or cactophile/cactophilic). Breaking down cactophily (cacto– and –phily), you have something with an affinity for or specialization in cacti. More precisely, cacto- is from the Neo-Latin noun for cactus, which derived originally from the Ancient Greek kaktos, a term used by Theophrastus to describe a kind of thorny thistle. And -phily is derived from the Ancient Greek suffix -philia meaning love, fondness, affinity, or a tendency toward something.
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Hope you found this interesting!
I’d love to know what woodpeckers visit your neighborhood.
More than likely you’ve seen the sparrow-sized House Finch if you live almost anywhere in the U.S., southern Canada, or Mexico. The males are particularly showy with their bright red heads, throats and breasts, and their bouncy flight is sure to catch your attention. Just filling a backyard bird feeder with black oil sunflower seeds can bring a flock of 50 House Finches in to feast. They tend to dominate their favorite feeders, often chasing off competitors, after which you’ll have plenty of time to observe these finches as they sit still while shelling seeds by rapidly biting and crushing them with their large beaks.
If you aren’t familiar with House Finches, you’ve probably heard their long, twittering song, which they belt out in most neighborhoods from coast to coast. Their song, so full of excitement and energy, is usually sung from the top branch of a tall juniper or pinyon pine tree. House Finches seem to be pleading urgently for attention by clearly singing, “Talk to me PLEASE, isn’t anybody THERE!!” (At least that’s what I hear over and over again first thing every morning throughout the Spring and Summer!)
Not knowing how many broods have been reared this year, to date, it seems like we’ve enjoyed a large number of family groups around the house. Fledglings are fun to watch in flight as they constantly chase adults to beg for food. These futile attempts for free handouts strengthens their wing muscles and hones their acrobatic skills. Usually defeated, these novice students soon land in a tree and begin a long, hard practice session to learn their parents’ complex song.
Completely exhausted, they will return to a certain cholla and the nest where the adult female fed and defended them as nestlings during the first 12-20 days of their lives. Finding even one of their well-hidden nests in any of those 4 to 7 foot tall cactus “trees” is quite the prickly endeavor! Even knowing how to recognize a House Finch nest hasn’t prevented me from experiencing plentiful and painful spiny jabs. What an excellent defensive location our local birds choose for nesting.
The Nest and Nesting Habits
In as little as two days, the female builds a cup-shaped nest made of fine stems, leaves, rootlets, thin twigs, string, wool, and feathers, with similar, but finer materials for the lining. This sturdy nest, durable enough to raise up to six broods a season, measures 3-7 inches wide; the inside cup is 1-3 inches across and up to 2 inches deep.
House Finches usually build their nests in cavities in deciduous and coniferous trees, on cactus and rocky ledges, and in or on buildings using sites like vents, ledges, street lamps, ivy, and hanging planters. They will also claim nests abandoned by other birds.
A western House Finch is likely to build its nest within 60 feet of where it was the previous breeding season; eastern birds choose sites more than half a mile away from prior nests. Despite these differing habits, all nest sites have a few things in common: a sturdy base and a roof-like overhang to shelter against sun and rain.
House Finch Facts
With over 40 million House Finches across North America, they are currently one of the most widespread and common bird species across the United States, second only to the American goldfinch.
Native to the Southwest U.S. and Mexico, in 1939 a few House Finches captured in Santa Barbara, California, were sold to a New York City pet store owner as “Hollywood Birds.” Even back then, the sale of these birds was recognized as illegal under the Migratory Bird Treaty Act of 1918. To avoid prosecution under the Act, the pet store owner released the finches …. they were set free on New York’s Long Island. By the early 1940s wild nests were discovered on Long Island, and from there the spread continued.
Sometime before 1870, House Finches were introduced to Oahu from San Francisco. By 1901, they had become abundant on all the major Hawaiian Islands.
Where House Finches are an introduced species, they are considered naturalized1. They’re also considered an invasive species in some places, largely in unforested lands across the eastern U.S. where they’ve displaced the native purple finch (and even the non-native house sparrow!).
In their native range in the Southwest U.S. and Mexico, House Finches live in desert, grassland, shrubland, and open woodland environments, as well as near human dwellings and cities. The biggest House Finch flocks in the East are found in cities, and it’s much more common to find the eastern birds in habitats developed by people than anywhere else.
Depending on where they live, House Finches can appear very different. Within the 11 officially recognized subspecies, body size, beak size and shape, wing length, tail length, and coloring can all vary regionally. For example, the northeastern migratory populations have longer and more pointed wings better suited for longer flights than the western finches which tend to be permanent, year-round residents. Also, House Finches on Guadalupe Island off the coast of Baja California, Mexico, have heftier beaks than mainland birds.
The bright red (and sometimes orange or yellow) plumage on the head, throat and chest of mature House Finch males comes from compounds in their food (bird species are unable to produce red or yellow other than by diet). These pigments, called carotenoids (the same ones found in carrots and tomatoes), come from the berries and other fruits they eat. Females prefer mates with the biggest and brightest red-colored patches — a sign of a well-fed male.
House Finches are among the strictest avian vegetarians: seeds, buds, fruit, and foliage comprise 97% of their year-round diet. Most seed-eating birds not only eat insects in the spring and summer when they are abundant, but will feed bugs to their nestlings to add protein for growth. Except for the occasional fly larva, House Finches stick to a vegetarian diet.
Dealing with a pandemic for decades, these birds suffer from “House Finch Eye Disease,” a form of conjunctivitis that was first detected in Washington D.C. in the winter of 1994. Since then, the bacterial illness has expanded continent-wide causing big declines in House Finch numbers. Infected birds often have swollen or reddened eyes and may appear inactive or confused. Over time, it leads to birds becoming blind, disoriented, and vulnerable to predators. Other finch species, such as the American Goldfinch, are also affected. Because the disease is spread through social contact, it’s very important to keep bird feeders and baths clean.
The mite, Pellonyssus reedi, is often found on House Finch nestlings, particularly later in the season. However, the adult female has a clever strategy in response to these often fatal attacks. Since male chicks are more vulnerable to a mite outbreak, she will lay eggs containing females first to reduce the length of time male chicks are exposed to mites. This strategy increases the likelihood that representative numbers of both sexes will survive.
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Share stories of your local House Finches!
Hope you found this interesting!
As always, thanks for stopping by!
1 A species is considered “naturalized” if it didn’t originally evolve in an area but has successfully adapted, established a permanent population, and is reproducing independently in the wild. These species are non-native, surviving without human help. Note: not all naturalized species are considered invasive.
The Lanceolated Chafer (Phyllophaga lanceolata) is a scarab beetle native to North America. In New Mexico (along with Colorado and Kansas) these chafers thrive in open, grassy ecosystems, including native shortgrass prairies, pastures, rangelands, and agricultural fields dominated by grasses like blue grama (Bouteloua gracilis) and others. It’s in these arid habitats that the larvae (grubs) are rarely considered major pests1. Unlike most Phyllophaga species, adults are diurnal (active during the day); females are flightless.
Adults – This small to medium-sized chunky beetle, is about 0.5 to 0.7 inches (13 to 17 mm) long; females are larger than males. Their hard wing/body cover (elytra) is brown with several darker brown/grayish longitudinal marks under a coat of white bristly hairs. Their segmented abdomens are mostly a smooth grayish/white; their thorax (pronotum) is heavily covered with long brown hairs. Because of their noticeably long, magenta-colored legs, they stand tall above the ground while walking. If picked up, their legs feel clingy and prickly. Adults live only 1 – 2 months, just long enough to grab a quick bite to eat, mate, and lay eggs.
Calling All Males!
The female Lanceolated Chafer produces and uses a unique sex pheromone, l-leucine methyl ester, to attract males! Because this pheromone acts as a highly-targeted sex attractant in the wild, she is able to communicate her readiness to mate and get a rapid response. As has been demonstrated in field trials, male chafers catching a whiff of her urgent communication can’t resist the call and come flying (read the true story of my eye-witness account in my post titled The Life and Times of the Lanceolated Chafer ). Research scientists (and I) whole-heartedly believe this pheromone contributes to the species’ reproductive success in its native range.
This was a unique discovery because the Lanceolated Chafer is the first scarab beetle ever identified to produce an amino acid-derived pheromone. (And there are over 35,000 species of scarab beetles in the world, making up one of the largest and most diverse insect families on Earth!) The pheromone is so effective at targeting male chafers that entomologists use it to monitor and manage populations of these beetles in agricultural crops and turfgrass.
Probably a male chafer, walking along the 2-track trail
And now a note about topic organization …..
As in all beetle species, it’s usually the adults that are encountered. And it was the adult stage of the Lanceolated Chafer that’s most obvious along the subdivision’s 2-track rockpile trail. That’s why information about the adults was placed first, even though it’s actually the final stage in the life cycle of the chafer. But it’s interesting to understand how all those adults came to be. So the following few sections tackle the highlights of the 1 – 3 year long larval stage, and pupal stage of their life cycle, which take place after egg laying and hatching. Afterall, the Lanceolated Chafer spends the longest parts of their lives underground. And then, for no particular reason, I’ll end with a section on entomology.
Larval Stage – Larvae (grubs) have a translucent white to cream-colored body and a light tan to brown hard and stiff (sclerotized) head capsule. Larvae have three pairs of well-developed legs. When at rest they do so in a C-shaped curve.
By the 3rd instar, internal organs are more visible and jaws are larger! Grubs have a voracious appetite.
Larvae live for 1 – 3 years, primarily in the upper layers of the soil profile. To protect themselves from extremes in soil temperatures, both in summer and winter, they will burrow to depths ranging from 3 to 20 inches (7.6 to 50.8 cm), averaging 10.3 inches (26.2 cm). Larvae actually hibernate in the winter.
The three instar stages of larvae development, serves to progressively increase body size, head capsule width, and degree of sclerotization. At the end of each instar, larva take up excess air and/or water to swell their bodies. This extra pressure causes its old exoskeleton to split, allowing it to be shed (a process called ecdysis). Mature (third instar) larvae are 1.75 inches (45 mm) long with a nearly uniform body width.
Pupal Stage and Metamorphosis – When larvae are ready to move beyond the third instar, each individual builds a protective, earthen cell in the soil 8 to 12 inches (20 to 30 cm) deep where they will remain for the next 2 – 4 weeks while they undergo metamorphosis and and finally emerge as adult beetles.
Etymology
The genus, Phyllophaga, is a generic name that comes from two Greek words ….. phyllon which means “leaf,” and phagos which means “eater.” The specific epithet lanceolata comes from the Latin word lanceolatus, meaning lance-shaped, probably referring to the fine, lanceolate hair-like scales covering parts of the beetle’s body, such as the head (frons) and thorax (pronotum). The etymology of the word “chafer” comes from an Old English word meaning “gnawer,” referring to the beetle’s strong jaws.
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Hope you found this interesting!
As always, thanks for stopping by!
1 Larvae of Lanceolated chafers are considered serious pests in the humid central and eastern U.S. they cause extensive damage to agricultural crops like corn, timothy, potatoes, and various other plants in the grass (Gramineae), pea (Fabaceae), and sunflower (Asteraceae) families.
This is the third year in a row that I’ve noticed these seemingly unremarkable-looking brown beetles “hiking” along the rock pile 2-track road. They appear all at once, about mid-June, then vanish after several weeks. This year (2026) these scruffy/fuzzy beetles, know as Lanceolated Chafers (Phyllophaga lanceolata), really caught my attention, especially after finding myself at ground zero of a mass male Flash Mob1 !!! From all directions, determined (and awkwardly) flying male chafers were dodging my legs to land on top of a lone female beetle frantically struggling against an earlier arriving male. His prickly lance-like legs had pinned her to the ground so she was lying on her side unable to use her legs. While she squirmed at my feet, newly landed beetles tried to fling off the original male to claim their rights to the female. Males continued to land until there must’ve been 30 or more, with fights breaking out everywhere, on top of the female and all around my feet. Each male was jousting to be victor.
Males arriving, fights break out
But a victor of what? Was this some sort of mating ritual? Had the female released highly potent pheromones to attract a mate? If so, how far did her “call” drift on the wind to bring together so many males at one time? Did she intend to call only one male, or was her purpose to entice a stampede? If she anticipated a herd, was her intent to mate with the first one (the fastest?) to arrive? Maybe she hoped for battles and skirmishes to ensue, where the strongest of all males would win her favor(s)? This still remains a mystery, as I couldn’t find anything in the literature to explain this behavior?
While pondering these questions (and daring not to move my feet for fear of squishing one of the many male pile-ups), I bent over for a better look. It was then I noticed an opaque white, worm-like thing slowly emerging from the female’s abdomen! “What could this be?” …..
Was it a larva? Probably not ….. Female chafers don’t give live birth; they lay eggs in the soil beneath their favorite host plants (such as mallows), where they hatch into grubs that remain underground for up to two years before emerging as adult beetles.
Five males fighting for the female (notice how much larger she is than a male). Bit of a skirmish, left side.
Was it part of or the actual female genitalia? Maybe? I’m still searching for information about that notion.
Was it part of the male genitalia that had somehow broken off inside the female during insemination? Is that even possible? Again, still searching for answers about chafer sex.
Three males with the female (notice the “wormy” thing). One male, lower left, apparently confused?
For another 5 minutes I closely observed the squirming female laying helpless on the ground fighting off numerous suitors while still displaying the wormy “thing.” As more males continued to arrive, crash-landing on other grounded males and adding to the chaos, something changed. Can’t explain what happened, but in a matter of 15 seconds all the males stopped their aggressive fighting and took flight; the female uprighted herself (regaining her dignity?), quickly walking away like the nothing unusual had just happened. I watched her go, noticing she was no longer in possession of the wormy “thing,” and couldn’t find it anywhere at or near the scene!
The party is over. A male walking away, looking for a mallow to snack on.
After-math
Over the next several days, nary a chafer was found! Had all the males satisfied their natural desires? Had all the females become pregnant, laid their eggs and vanished? “After” doing the “math” on the days following the event, I counted only two beetles walking the 2-track road, one headed north — one headed south. Scouts? ….. Because Lanceolated Chafer adults only live 1-2 months, and because none have been seen since the last two, that may be the end of sightings for this year. While there’s still the occasional pack of ants dragging away a dead beetle to share with their colony, the legacy of adult chafers lives on. Recently-laid eggs will hatch after only 18 days into white or cream colored, C-shaped larvae. Those grubs will munch away on mallow and grass roots for the next 1-3 years until a perfectly warm mid-June day, sometime in the future, the adults emerge from the soil to complete their life cycle.
Epilogue
Since most chafer beetles are nocturnal (active at night), if you’ve seen an adult during the day, it may have been the Lanceolated species which are diurnal (active during the day). And you may have unwittingly encountered any of the chafer species found in North America…….
An exhausted male, a bit off balance, as he feeds on mallow leaves.
…….. If you’ve ever seen one or more of your carefully-tended, vigorously-growing garden plants up and die overnight, it may have been victimized by root-living chafer grubs.
…….. If you live in the central or eastern U.S., grubs may be feasting on the roots of agricultural crops, like corn, soy, or sunflowers. Headline news is sure to cover the story of devastation and financial ruin brought on by the voracious chafer beetle larvae, complete with video of farmers holding a handful of grubs dug from below the soil surface.
Have you experienced one of these close encounters?
Hope you’ve found the “Life and Times of the Lanceolated Chafer” interesting (or maybe educational, peculiar, or maybe even fascinating!?!). Let me know what you thought.
As always, thanks for stopping by!
1 A flash mob is defined as a large group of people who suddenly assemble in a public place, perform a brief, pre-arranged action (like a synchronized dance), and then quickly disperse. Flash mobs are typically organized online via social media or viral messaging for entertainment or artistic expression. I think this definition nearly perfectly fits the chafer beetle dance I was witness to on that fine mid-June morning somewhere along the 2-track rock pile trail.
Linnaeus named the genus Monarda to honor 16th century Spanish physician and botanist, NicolásBautista Monardes (1493-1588). Monardes never went to the Americas but was able to study medicinal plants in Spain, publishing the first systematic, in-depth book on medicinal plants and remedies brought to Europe from the Americas.
The species pectinata is derived from the Latin word pecten, meaning “comb.” The suffix -ata denotes possession or resemblance — so it translates loosely to “comb-like” or “having the form of a comb,” referring to the bristle-tipped bracts that sit below flower whorls.
Monarda pectinata is commonly called Plains Beebalm (or Pony Beebalm) because of its historically recorded uses by Indigenous peoples as an analgesic and antiseptic qualities.
Ethnobotanical and Culinary Uses
Indigenous peoples used a plant infusion to treat coughs, colds, fevers, and stomach complaints related to digestion. A flower infusion was used as a wash on insect bites and stings. The plant was rubbed on the head to bring relief from headache. In addition, historic records document that groups, such as the Kiowa, used Monarda pectinata leaves as a perfume due to its strong scent, and were chewed while traveling.
The strongly aromatic smell of crushed Plains Beebalm leaves smell both savory and citrusy, similar to oregano or lemon. Sometimes called “wild oregano,” they can be eaten fresh, dried or cooked to season in salads or other foods. In spring the leaves may be boiled to make herbal tea.
Plains Beebalm blooming in our yard, in bright sunshine and rocky soils.
Pollinators
According to the Xerces Society for Invertebrate Conservation, all Monarda species attract a number of native pollinators such as specialist bees, bumble bees, predatory wasps, hummingbirds, and hawk moths.
A Few Fun Facts
Desert Survivor: Although many Monarda species are moisture-loving, such as Wild Bergamot (Monarda fistulosa) found the along cool trails of Sandia Mountain, Plains Beebalm prefers hot, harsh, dry environments like desert washes, rocky slopes, and sandy pinyon-juniper woodlands.
Wild Bergamot and a little skipper pollinator. Tecolote Trail, Sandia Mountain, NM. This Monarda species prefers living in moist soils under the shady canopy of white fir and ponderosa pine.
Mammal Resistant: While pollinators adore Plains Beebalm, its strong, minty-citrusy-oregano essential oils act as a natural deterrent, making the plant resistant to browsing deer and rabbits.
Pollinator Magnet: The tubular pale pink flowers of Plains Beebalm are an excellent nectar source for long-tongued native bees, butterflies, and hummingbirds, especially during the hot summer months.
Soothing Relief: Plants in the Monarda genus are commonly called “Beebalm” due to the soothing nature a wash application of the plant, especially the flowers, has on insect bites and stings — particularly bee stings. Turns out plants in the genus contain the active ingredient thymol, a natural antiseptic found in modern mouthwashes.
The Tale of the Tangled Pot: Recognizing our Deeply Rooted and Inseparable Connection with the Natural World Through the Practice of Nature Journaling
June 14, 2026
Zentangle patterns: Mogo, Sage, Roadrunner, Agave, Lazy Leaf, Monsoon, Zona, Voyage, Hokam (patterns created by Angie Gittles). Also added Hahna and Tentoculus. All patterns found on tanglepatterns.com
Living in the desert Southwest, inspiration for many of my Zentangle work comes from the representative art created by the indigenous peoples of New Mexico and the Four Corners region. Their deep connection with nature was often expressed in ancient rock art and on handcrafted pottery in ways that amaze. It takes me back to a different time and place; where their way of life was deeply rooted and inseparable from the natural world; where survival required an understanding and appreciation of the countless interdependent components required for the productive function and evolution of complex ecosystems.
Fast forward to today. Our fast-paced, stress-filled, consumer-centric lifestyles, full of techno-gadgets (demanding so much of our attention), and instant gratification, offers people a cushy arm-chair view of the world. Why put down those phones or turn off the TV, when we can safely and comfortably “witness” nature from our homes? Better yet, why not?
While pondering that question, many compelling reasons came so easily. Just being present in nature can be calming; relaxing; stress-reducing — we slow down, taking time to observe our natural surroundings. By really “seeing” local ecosystem(s) with all of our senses, we experience awe and wonder and make meaningful memories. Our once dormant skills in curiosity and critical thinking come alive as we learn about the integral connectedness of nature’s many and diverse components. By understanding and valuing how our connectedness to nature always has been and always will be critical not only to our very survival, but to the survival of all species, we realize the ability of all living things to thrive benefits from natural ecosystem services that provide things like clean water to drink, clean air to breathe, food to eat, and a habitable climate. These vital services are priceless. All nature asks is that we keep it healthy. First-hand personal exposure to the natural world fosters appreciation, love, and a desire to nurture and protect nature; an investment in the future of all life on Earth.
Observing the Natural World through the Practice of Nature Journaling
People have been observing, learning, and recording nature around the world for millennia. The oldest known cave art (pictographs) with paintings of wildlife, primitive humans, and human-bird hybrids hunting pigs, was discovered on an Indonesian island, and dates back almost 70,000 years. The oldest known rock carvings (petroglyphs), created by the Aborigines of Western Australia 40,000 – 50,000 years ago, depict wildlife and hunting parties. The oldest known petroglyphs found in North America were carved into boulders by still-unidentified humans that lived in the Winnemucca, NV area (east of Reno) between 10,000 and 14,800 years ago; their rock art represents leaves and trees. The oldest pictographs and petroglyphs found in New Mexico were made by Ancestral Puebloans and other Indigenous groups between 3,000 to 4,000 years ago in the Guadalupe Mountains/Carlsbad Region (southern NM) and depict hunting parties, wildlife and other natural elements.
The travelers, explorers and settlers that arrived in North America significantly influenced nature recording. They kept journals, field notes, and artistic renderings tracing a rich history of scientific inquiry and ecological changes spanning early colonial times to the formal natural history expeditions of the American West. For example, John Lawson (1709) and Mark Catesby (1731-1743), each published a book with their observations of the flora and fauna of the eastern colonial colonies (Catesby) and the southeast (Lawson). Extensive and diverse nature observations were recorded by all members of the Lewis and Clark Expedition (1804-1806), and by John James Audubon (1827-1838) with a focus on birds in their natural habitats. These and many more examples of “journaling nature” provided an understanding of the complex ecosystems that existed between two oceans, and was indispensable to the successful settling of North America.
Today’s Practice of Nature Journaling — paying attention, recording observations, asking questions, noticing changes, and reflecting on the natural world — is nearly identical to historical journaling practices, with some healthy advantages for mind and body. For example, Nature Journaling offers much needed mental, cognitive, and emotional relief, particularly important in today’s world. It also provides a screen-free way to reduce stress, encourage mindfulness, and sharpen observational and critical thinking skills. By intentionally immersing ourselves in nature — by being fully present — we can experience these benefits, and more. We find our place in nature by making connections and understanding how we are an integral and inseparable part of the environment around us.
“Walking” thoughtfully and gently in nature inspires us to nurture and protect what we are all part of, instilling in us a deep appreciation for the natural resources essential for the survival of our ancestors, as well as for our survival today and for future generations.
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Zentangle patterns: Mogo, Sage, Roadrunner, Agave, Lazy Leaf, Monsoon, Zona, Voyage, Hokam (patterns created by Angie Gittles). Also added Hahna and Tentoculus. All patterns found on tanglepatterns.com
Many thanks to Angie Gittles, a Certified Zentangle Teacher, for developing the step-outs to an abundance of patterns inspired by Indigenous Peoples of the Southwest. Her inspiration inspired me to weave 10 of her different designs into a stylized pot to honor and encourage such an important way of life. In doing so, I took my time, taking many deep breaths during the process, and thought about the days when appreciating and expressing nature was a natural way of living.
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Resources and a Few Important Tips
Whether you consider yourself a “Nature Journaler” and would like to learn more, or are interested in how to begin, there are countless resources and examples to refresh your skills or to get you started. Borrow a library book, such as Nature Drawing by Claire Walker Leslie, Keeping a Nature Journal by Leslie Roth, or Nature Drawing and Journaling by John Muir Laws.
To get started in journal sketching or to improve your skills, check out the following: Discovering the Art of Field Sketching by Kristin Link, Botanical Drawing using Graphite and Colored Pencil by Sue Vize, or The Artist’s Guide to Sketching by James Gurney and Thomas Kinkade.
Of course there hundreds of thousands of on-line resources and social media sites about Nature Journaling and related topics. But beware the pit trap ….. lest you get caught up in doom of perpetual scrolling, never to get a breath of fresh air in the light of day!
If you’re unsure about becoming a “Nature Journaler,” know that anyone can head to the woods, the backyard, or sit by a window. You don’t have to travel hundreds of miles to visit a National Park ….. nature is everywhere! All you need is a pencil and piece of paper, the curiosity to see what’s around you, and the desire to slow down and observe with all your senses. There’s no right or wrong way to journal in nature, but when you do, be fully present; take the time to really “see” your surroundings. Just committing to turning off your screens to nature journal for 5 minutes a day will be perfect for you!
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Black-tailed jack rabbit on the move!
Hope you enjoyed my Tangled Pot. As I always do while nature journaling, when creating these kinds of Zentangle-inspired works, my automatic slow-down mode becomes engaged, allowing me to think about possible directions I can take to complete a page. Sometimes the path is direct, but more often a world of rabbit trails leading to deep holes opens up before me, and I gotta take the plunge. That’s exactly what happened while tangling the Pot. And that’s what got me thinking about— how our ancestors used to live in nature, how art represents nature— how nature is endlessly tangled up in life— how today’s values take a back seat to our crucial connections with nature—how nature journaling can be used as a tool to restore gratitude and appreciation for nature—how, without nature, life as we know it would not exist.
I’m going to turn off my computer now and go enjoy a walk in nature with my journal. Are you inspired to do the same?
White Milkwort (Senega alba (Nutt.) J.F.B. Pastore & J.R. Abbott)
(synonymous with Polygala alba Nutt.)
A Light Touch
It was a beautiful morning for a walk along one of the neighborhood’s 2-track dirt roads. I was searching for late blooming Spring wildflowers when something lightly brushed against my leg, bringing me to a full stop. There, at my feet, gently swaying in the quiet breeze were a dozen+ foot tall, nearly naked, skinny green stems topped with lavender and white cones. Not wishing to crush these delicate stalks, I noticed there were five other groupings nearby, all growing in the road’s old tire depressions. Upon closer inspection, I recalled having seen this plant before in the yard of our previous home, but they had fewer and shorter stems, and larger (?) flower cones. Still, this was the white milkwort species (back then known as Polygala alba; today called Senega alba) I identified four years ago. It was the larger size and delicate nature of these plants at my feet – that puzzled me.
Here’s what I learned:
The stems, which are ridged, can grow to 18” tall. They branch from a basal caudex (a root-like thickened stem, often found underground, from which branching/stems grow …… and the more extensive the caudex, the more above ground stems form.
You can roughly age this perennial milkwort by counting the number of vertical stems. Typically there’s one stem on seedlings and one-year old plants; as many as 30 stems have been counted on much older (many, many years old) plants.
Even though the official flowering period ends late summer, if mid-summer/early fall rains (our monsoon season) are plentiful, another bloom period peaks and can continue into November. It’s been reported that when old flowers are removed from these milkworts (deadheaded), the plants will bloom continuously for up to four years! Obviously, those plants are not impacted by winter frosts.
The 90% of the pollinators visiting white milkwort are small to medium solitary or semi-solitary bees. Where we live (desert southwest), many of these ground-nesting bees are floral specialists, and based on research dating back to the early 70s, green metallic bees highly favor this native plant’s flowers for nectar and pollen. And with extended bloom times prompted by monsoons, this helps benefit these and other bee species. Unfortunately, the timing and intensity of our monsoons is no longer predictable and is likely causing unfavorable conditions for extended flower bloom and the bees.
Always be prepared to encounter a plant that tickles!
Classification and an Etymological Quandary
To learn the story about the old and new scientific names for white milkwort, and why being a botanist way back when and today is so challenging, read the next section on Etymology. It really is quite fascinating!
Etymology
Way back in the day (say, the early 1800s), when Thomas Nuttall, a English botanist, ornithologist, geologist and explorer, needed an unforgettably descriptive binomial name for a new species he’d discovered, “Polygala alba Nutt.” was his choice. The genus “Polygala,” which was originally assigned by Linnaeus to a group of plants with similar-looking flowers, is Greek for milkwort — meaning “much milk; ” the species name “alba” is Latin for “white, bright or clear.”
Thomas, logically picked “alba” as the species name for his new discovery, because the plant had white flowers. However, he apparently chose the “Polygala” genus based on an ancient belief that nursing mothers (and cows) that ate the milkwort plant experienced increased lactation. However, Polygala alba doesn’t have either milky sap or any plant parts with milk! After diving deeper into the Polygala genus as a whole, I couldn’t find any that ooze a milky substance.
The changing nature of botanical classification: It wasn’t until recently (2023 to be exact) that the official report announcing the transfer of 18 Polygala species to Senega, including Polygala alba to Senega alba, was published by botanists J.F.B. Pastore & J.R. Abbott. This change was based on a number of scientifically-researched plant characteristics, which addressed deviations in seed, fruit, and floral anatomy between Senega and true Polygala species. Now I know I need a bigger microscope!
In case you’re curious (I certainly was) there are no Senega milkworts (today referred to as American milkworts, formerly classified under Polygala) with a milky sap. So, despite their family (Polygalaceae) and originally assigned genus name (Polygala), these plants exude a clear, watery sap when their stems are broken.
Why “Senega” was selected as the genus name for all American milkworts: The genus name “Senega” comes from the Seneca Native American tribe. The first use of the name in the English language was in the 1730s; the Seneca snakeroot plant was given the scientific name Polygala senega, to honor the tribe’s traditional use of the root as a remedy for snakebites and respiratory issues.
Lithospermum, the genus named by Linnaeus in 1753, is Greek for stone (“Lithos”) and seed (“sperma”), referring to the hard nutlets. And “incisum,” theLatin species name referring to the incised, fringed edges of the trumpet flowers, was named by Lehman (a German botanist) in 1818 from a specimen collected “near the rapids of theOhio” by Andre Michaux (a French botanist and explorer) in 1802.
Puccoon evolved from “poughkone,” a word the Virginia Algonquian language used for plants whose roots yield a red or yellow pigment. The roots of Narrowleaf Puccoon were historically used as dyes ranging from purple to red to yellow.
A Two-Flower Strategy
Very showy and quite lovely, the sunshine yellow trumpet-shaped flowers of Narrowleaf Puccoon are hard to miss. They often cluster at the ends of 12-20” long stems where the floral tube is ringed by five frilly petal lobes. The flowers depend on pollinators like butterflies for cross-pollination which adds genetic diversity to the few seeds they produce. Botanically speaking, these traditional, open flowers with exposed reproductive parts are referred to as Chasmogamous.
Then later in the season, the Narrowleaf Puccoon produces small, petal-less flowers that remain tightly closed. These highly fertile, self-pollinating flowers account for almost all of the plant’s seed production. Botanists refer to this type of closed, often inconspicuous flower as Cleistogamous.
An immature nutlet
The“Stone Seed” Fruit
BecauseNarrowleaf Puccoon only produces the occasional fruit from its showy flowers, it takes a bit of searching around the plant’s lower leaf axils to locate a tiny group of up to four hard “stone seed” nutlets. Beginning growth inside the self-fertile, closed (Cleistogamous) flowers that are present late in the season, each egg-shaped nutlet, pitted across the surface, ripens to a shiny white.
Plant Propagation
Seed Germination – To grow Narrowleaf Puccoon from seed, nutlets should be collected in late summer. Soak them overnight in hot water then plant immediately. Because seed germination is sporadic and often disappointing, selecting a desirable location for planting is important. The plant grows best in very sandy, well drained soils found in the dry/open areas within our pinyon/juniper woodlands (though they do grow in soils with some loam or clay).
Shiny white nutlets with Penny for size Photo edited from a post by A Wandering Botanist
Root Cutting – A more successful method may be to take a 2-inch cutting of the taproot in the fall. Dip the cutting in a root stimulant and plant in a desirable location.
Suggestions for root stimulants
Powdered Hormones: Highly cost-effective, have a long shelf life and easy to use. After you moisten the root cutting, just dip it directly into the powder (e.g., Garden Safe TakeRoot) and plant.
Natural/DIY Options: Raw aloe vera gel and crushed, uncoated aspirin both contain natural growth-promoting enzymes. You can also use diluted willow bark extract, which is naturally rich in rooting hormones.
Plant Care – Narrowleaf Puccoon requires full sun and very little water, making it a good plant for xeric gardens or included with other native plants to establish a wildflower meadow.
Photo taken early May 2026 along the Entranosa access road
Medicinal Properties and a Cautionary Note
The Navajo chewed the root of Narrowleaf Puccoon for coughs and colds. They, and the Zuni rubbed the plant’s finely powdered leaves, root and stem on the body to treat paralyzed limbs. An infusion of the root was used for stomach aches and kidney problems. The plant was eaten as an oral contraceptive, and a cold infusion of the pulverized root and seed was used as an eyewash.
Although Narrowleaf Puccoon does have medicinal properties, it contains potentially toxic alkaloids. Self-treatment involving this plant is strongly discouraged.
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If you’ve seen Narrowleaf Puccoon, did you find their highly fertile, tightly closed flowers and/or the shiny white nutlets? Have you tried growing the plant from seed or root cuttings, and were you successful?
a curious nature 