I found this on Amazon, which appears to be the cheapest source of ethyl alcohol (a.k.a. ethanol) within my reach. The textbooks say that denatured ethyl alcohol works fine for preserving specimens, and technically that should be true for this as well ... except for the added ingredient “np acetate,” which is also called “normal propyl acetate” or just “propyl acetate.” Does anyone have experience with this stuff to know if it will destroy my critters?
Hey guys, I just found a beautiful garden spider in my backyard and I’d love to preserve it, thing is I’ve never done that sort of thing with ‘meatier’ insects. Would I need to clean out his abdomen? And is there anything I should do to keep his pretty colors?
Hello all! I am just now entering the entomology scene, and would love to start a new project of creating an insect shadowbox, but I don't know where to start. Does anyone have tips on where to find reasonably priced insects, how to pin, or what insects are the best for pinning? Thank you all so much in advance :)
Hi, I found two bugs of the same type in a bed that I will be using tomorrow. I know they are not bed bugs. This is in South East Turkey. I used to work in pest control so I know they aren't bed bugs. My phone couldn't get a good picture. Looking at the blurry pictures it looks like they have a little white in the middle of their bodies with dark brown or black at each end. They are longer than they are wide.
Where can I purchase several polyethylene foam sheets for under 5 dollars? I am making shadowboxes and a spreading board, and I need some cheap and sturdy foam.
I see people post really good photos here all the time, but this subreddit still has no picture. We could also just use the dancing cockroach for giggles.
I get confused scrolling through home bc I'm also part of tf2 shitposters' club which also has no picture lol.
The diversity of mosses is much higher than many people realise. Whereas some moss species have wide ranges that may cross between continents and hemispheres, others are unique to very specific regions and habitats. Among examples of the latter is the European species Bucklandiella lusitanica.
Illustrations of Bucklandiella lusitanica, from Ochyra & Sérgio (1992). Top left: habit; top right: section of stem of hair-leafed form when dry; lower left: section of stem of hairless form and sporophyte when wet.
Bucklandiella lusitanica was only described as a new species (under the name Racomitrium lusitanicum) in 1992 (Ochyra & Sérgio 1992), having gone unnoticed previously despite being a relatively distinctive species. Recent collections of the species have been identified from a single region, the Serra do Gerês mountain rainge and Parque Natural da Peneda-Gerês national park in the northwest of Portugal, at altitudes between 650 and 1000 metres. A single collection from the Serra do Estrela further south in the country was made in the mid-1800s though it went unidentified at the time. Its rarity is such that is has officially been listed as Endangered by the IUCN. Bucklandiella lusitanica is a rheophyte, which is to say that it grows in association with running water. It grows on acidic granite rocks that are periodically or permanently submerged, such as alongside streams and waterfalls. It is particularly abundant on steep rock faces, growing in association with closely related moss species.
Appearance-wise, Bucklandiella lusitanica is a medium-sized moss with irregularly branched stems growing 1.5 to 3.5 centimetres in length. Leaves are rigid, held tight to stem, and two or three millimetres long.One of the species' most distinctive features is a broad, fleshy margin to each leaf that is generally two or three cells thick whereas the lamina of the leaf is mostly only a single cell thick. The alar cells at the base of the sides of the leaf often form inflated, strongly coloured lobes. The leaves commonly end in a fine, colourless hair-point. The structure of the leaves is similar to that of Bucklandiella lamprocarpa, another aquatic moss species, but that species lacks the hair-points. The two species also differ in the form of their spores, those of B. lamprocarpa being larger and more ornate than those of B. lusitanica, and B. lamprocarpa has fatter and often shinier capsules than B. lusitanica.
I mentioned previously that Bucklandiella lusitanica was originally described as a member of the genus Racomitrium. The moss genus Racomitrium was long recognised by a distinctive array of features including leaf lamina cells with distinctly sinuous longitudinal cell walls, a calyptra (the cap of the developing capsule) that is basally frayed into several lobes, and teeth of the peristome (the teeth around the aperture of a mature capsule) that are split into two or more segments (Sawicki et al. 2015). Racomitrium in this sense was a diverse genus with over two hundred species having been named at one time or another, and somewhere between sixty and eighty species recognised as valid in recent years, As a result, Ochyra et al. (2003) proposed the division of Racomitrium in the broad sense between four separate genera. Bucklandiella, the largest of these segregate genera (with about fifty currently known species), was recognised for species with a smooth leaf surface (lacking papillae on the lamina) and relatively short, shallowly divided teeth in the peristome. The division of Racomitrium has not been universally accepted. Larrain et al. (2013) questioned the monophyly and diagnosability of Ochyra et al.'s segregates but Sawicki et al. (2015) reiterated their support for the new system (and added a fifh new segregate genus to boot). It is generally accepted that Racomitrium in the broad sense represents a monophyletic unit, so the question of whether lusitanicum should be assigned to Racomitrium or Bucklandiella may largely be considered a question of just how closely circumscribed you feel a genus should be.
REFERENCES
Larraín, J., D. Quandt, M. Stech & J. Muñoz. 2013. Lumping or splitting? The case of Racomitrium (Bryophytina: Grimmiaceae). Taxon 62 (6): 1117–1132.
Ochyra, R., & C. Sérgio. 1992. Racomitrium lusitanicum (Musci, Grimmiaceae), a new species from Europe. Fragmenta Floristica et Geobotanica 37 (1): 261–271.
Ochyra, R., J. Żarnowiec & H. Bednarek-Ochyra. 2003. Census Catalogue of Polish Mosses. Institute of Botany, Polish Academy of Sciences: Cracow.
Sawicki, J., M. Szczecińska, H. Bednarek-Ochyra & R. Ochyra. 2015. Mitochondrial phylogenomics supports splitting the traditionally conceived genus Racomitrium (Bryophyta: Grimmiaceae). Nova Hedwigia 100 (3–4): 293–317.
my brother and I like insects but have a lot of trouble identifying the more exotic species depicted. We assume some are cgi, but the video is low quality, and it is hard to discern. You never know what's out there, so I am excited to see what is real.
I’ve got a few pet spiders and mantids I’ve caught in my yard as well as tarantulas. Instead of buying crickets it would be awesome to harvest them from my yard because I see tons of them. Is there some way I can easily set a trap that will catch them without harm?
Last week while driving from Maryland to New Jersey along Route 30 in southeastern Pennsylvania, I stopped for a bite to eat in scenic Rohrerstown. This once forested town settled by the Pennsylvania Dutch now finds itself the home of a new six-legged settler from Asia, the spotted lanternfly. We met the spotted lanternfly in previous episodes of Bug of the Week where we learned about its discovery in Berks County in 2014, how it moved to locations nearby, and what citizens could do help local officials track its movement and slow the spread of this killer of vineyards.
Lanternfly adults and their youngsters, called nymphs, remove large quantities of phloem sap from woody plants as they feed. The excess is excreted from their rear end in copious amounts as a sugary waste product called honeydew. More than 103 plant taxa of woody and herbaceous plants serve as hosts for spotted lanternflies. Spotted lanternflies can be severe pests of fruit and shade trees, grapes, and hops. Massive infestations in vineyards have withstood repeated applications of insecticides and still caused the demise of entire vineyards. In home landscapes, hundreds of these rascals have been observed feeding on a single plant, where they rain scads of honeydew onto vegetation and the earth below. As with honeydew produced by other phloem feeders such as soft scales and aphids, the honeydew excreted by lanternflies fouls foliage, fruit, and underlying plants, and serves as a substrate for the growth of a fungus known as sooty mold. Honeydew makes leaves sticky and fruit unmarketable, and sooty mold further disfigures leaves and fruit and may impair photosynthesis. This presents a huge economic problem for growers of apples, cherries, peaches, and grapes. Sweet honeydew and its fermentation products also attract a variety of stinging insects like yellow jackets and paper wasps. In addition to excreting honeydew, lanternflies may be so numerous that they cause wilting and dieback of branches.
While I munched a panini at an outdoor table, I was astonished to see airborne spotted lanternflies crashing into plate glass windows of nearby buildings. The nearest trees that might have spawned these aeronauts were several hundred yards away. Earthbound lanternflies dashed across sidewalks and streets and hapless lanternflies met untimely death beneath the feet of pedestrians and wheels of cars. Amidst a concrete jungle, I wondered where these buggers had come from and how they got there. One somewhat harebrained possibility was that they hiked as nymphs from egg masses laid on stones or Ailanthus trees bordering a distant hedgerow and spent their youth sucking sap on one of a dozen red maples struggling to survive in small concrete coffins in the center of the parking lot. A clever study conducted by Kelli Hoover and her colleagues at Penn State found that some spotted lanternfly nymphs travel as much as 213 feet in their quest to find a suitable host, but only about half would travel 56 feet. While this pretty much ruled out a hike from the hedgerow, a quick check of the maple trees confirmed no signs of occupation by lanternflies and infirmed my nymphs-take-a-hike hypothesis. More likely, of course, is that these travelers developed on distant trees and were on their way somewhere else.
On a sunny late summer afternoon in a restaurant park in scenic Rohrerstown, PA, spotted lanternflies were on the wing. They crashed into windows, wandered on sidewalks, and met gruesome ends beneath human feet and tires of vehicles. Wanderers displayed their impressive jumping skills when harassed by a giant finger and one contemplated a trip to New Jersey on the rear bumper of my car.
In addition to being capable flyers, I learned that they were excellent jumpers as well, much to the amusement of fellow diners watching my feeble attempts to capture the earthbound insects. When I finally snagged a couple I found them to be rather trim, unlike rotund lanternflies I had discovered on the trunks of trees in the latter weeks of autumn in previous years. Recent studies by scientists in Pennsylvania reveal some of the secrets to the autumnal movements of adult spotted lanternflies. Thomas Baker and his colleagues at Penn State discovered that these slim fancy flyers are primarily unmated females capable of flights ranging from roughly 30 to 150 feet. Their spontaneous flights are believed to be quests to find suitable hosts, plants that will supply sufficient nutrients for them to fatten up and deposit a complete complement of eggs before cold weather puts an end to their mischief. The Penn State team also assessed the flight worthiness of plump yellow-bellied lanternflies. A vast majority of these heavy females had successfully mated but their ability to fly was weak and limited to only about 12 feet when launched into the air.
While autumnal spontaneous flights have been witnessed on a regular basis, these relatively short distance flights of hundreds of feet likely account for only a minor component of the spotted lanternflies’ spread to adjacent counties and states. From their initial discovery point in Berks County in 2014, isolated spotted lanternflies have been recovered in eastern Massachusetts some 270 miles distant and in Buncombe County, North Carolina almost 500 miles away. According to entomologist Julie Urban, also at Penn State, the most likely explanation for these long distance peregrinations lies in human-assisted transport of lanternfly eggs. It is believed that spotted lanternflies arrived in Pennsylvania around 2012 from Asia in a shipment of stone products bearing lanternfly eggs, a trip of some 7,000 miles. Unlike many herbivorous insects that lay eggs on food plants for their young, spotted lanternfly mothers deposit egg masses on non-host objects including stones, cinder blocks, lawn furniture, and vehicles, in addition to trees. These nondescript masses of eggs are easily overlooked on natural and human-made items and easily transported inadvertently by road or rail. Unfortunately, at the epicenter of the spotted lanternfly infestation in southeastern Pennsylvania, Delaware, and New Jersey, several major interstate highways and railways run north and south, east and west, crisscrossing a region replete with warehouses, truck stops, and railroad depots embedded in a matrix of orchards, vineyards, and forests that serve as hosts for lanternflies.
This map shows the current locations of established infestations of spotted lanternflies (blue counties), internal state quarantines are outlined in red, and counties with isolated detections have a small purple dot. Map courtesy of Brian Eshenaur and the New York State Integrated Pest Management Program of Cornell University.
So, how far will spotted lanternfly spread in the US? Based on recent climatic data from the US and Asia, scientists suggest that much of the mid-Atlantic and Central regions of the US and portions of California, Oregon, and Washington State have climates suitable for the survival of spotted lanternfly. In addition to well-established infestations in Pennsylvania, Virginia, Delaware, New Jersey, West Virginia, and Maryland, isolated living or dead individuals have been found in more than three dozen locations in the previously listed states and also in New York, Connecticut, and Massachusetts. As I finished my lunch and headed back to my car, I noticed a skinny spotted lanternfly perched on my rear bumper ready to hit the road with me to the Garden State. As I constructed this tale last week, I received an update that several living spotted lanternfly adults had been spotted in Greenwich, Connecticut. So, if you travel in the aforementioned infested zones in autumn, when you stop for a biobreak, meal, or fuel, please give yourself and your vehicle a quick once over to be sure you are not transporting these clever hitchhikers. Will spotted lanternflies soon be coming to your neighborhood? Time will tell, but as I have often heard said, you can usually bet on the bug. (BTW, of course I removed the lanternfly from the bumper of my car and inspected it for other hitchhikers before I drove away.)
This map shows the potential distribution of spotted lanternfly in the United States based on climatological data. Areas with the highest probability of supporting lanternflies appear in dark orange and areas unsuitable for lanternflies are white. Map courtesy of the Entomological Society of America at Entomology Today, October 3, 2019.
To learn more about spotted lanternfly please visit the brilliant, fact-packed Penn State Cooperative Extension Website at this link: https://extension.psu.edu/spotted-lanternfly
To watch a video of spotted lanternflies in flight, please click this link.
Acknowledgements
Bug of the Week thanks Dr. Shrewsbury for spotting and wrangling spotted lanternflies for this episode. We acknowledge the great work of scientists contributing to our knowledge of this pest, with particular thanks to authors of articles used as references including “Worldwide Feeding Host Plants of Spotted Lanternfly, With Significant Additions from North America” by Lawrence Barringer and Claire M. Ciafré, “Perspective: shedding light on spotted on lanternfly impacts in the USA” by Julie M. Urban, “Dispersal of Lycorma delicatula (Hemiptera: Fulgoridae) Nymphs Through Contiguous, Deciduous Forest” by Joseph A. Keller, Anne E. Johnson, Osariyekemwen Uyi, Sarah Wurzbacher, David Long, and Kelli Hoover, and “The Establishment Risk of Lycorma delicatula (Hemiptera: Fulgoridae) in the United States and Globally” by Tewodros T. Wakie, Lisa G. Neven, Wee L. Yee, and Zhaozhi Lu. Thanks to Brian Eshenaur and the entire team at the New York State Integrated Pest Management Program of Cornell University for providing the updated maps of spotted lanternfly in the US and to the Entomological Society of America for providing the map of the potential distribution of spotted lanternfly in the US.