The Whip Scorpion, Mastigoproctus Giganteus
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1 It's All Geek to Me: Translating Names Of
IT’S ALL GEEK TO ME: TRANSLATING NAMES OF INSECTARIUM ARTHROPODS Prof. J. Phineas Michaelson, O.M.P. U.S. Biological and Geological Survey of the Territories Central Post Office, Denver City, Colorado Territory [or Year 2016 c/o Kallima Consultants, Inc., PO Box 33084, Northglenn, CO 80233-0084] ABSTRACT Kids today! Why don’t they know the basics of Greek and Latin? Either they don’t pay attention in class, or in many cases schools just don’t teach these classic languages of science anymore. For those who are Latin and Greek-challenged, noted (fictional) Victorian entomologist and explorer, Prof. J. Phineas Michaelson, will present English translations of the scientific names that have been given to some of the popular common arthropods available for public exhibits. This paper will explore how species get their names, as well as a brief look at some of the naturalists that named them. INTRODUCTION Our education system just isn’t what it used to be. Classic languages such as Latin and Greek are no longer a part of standard curriculum. Unfortunately, this puts modern students of science at somewhat of a disadvantage compared to our predecessors when it comes to scientific names. In the insectarium world, Latin and Greek names are used for the arthropods that we display, but for most young entomologists, these words are just a challenge to pronounce and lack meaning. Working with arthropods, we all know that Entomology is the study of these animals. Sounding similar but totally different, Etymology is the study of the origin of words, and the history of word meaning. -
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INFORMATION TO USERS The most advanced technology has been used to photograph and reproduce this manuscript from the microfilm master. UMI films the text directly from the original or copy submitted. Thus, some thesis and dissertation copies are in typewriter face, while others may be from any type of computer printer. The quality of this reproduction is dependent upon the quality of the copy submitted. Broken or indistinct print, colored or poor quality illustrations and photographs, print bleedthrough, substandard margins, and improper alignment can adversely affect reproduction. In the unlikely event that the author did not send UMI a complete manuscript and there are missing pages, these will be noted. Also, if unauthorized copyright material had to be removed, a note will indicate the deletion. Oversize materials (e.g., maps, drawings, charts) are reproduced by sectioning the original, beginning at the upper left-hand corner and continuing from left to right in equal sections with small overlaps. Each original is also photographed in one exposure and is included in reduced form at the back of the book. Photographs included in the original manuscript have been reproduced xerographically in this copy. Higher quality 6" x 9" black and white photographic prints are available for any photographs or illustrations appearing in this copy for an additional charge. Contact UMI directly to order. University Microfilms International A Bell & Howell Information Company 300 North Zeeb Road. Ann Arbor, Ml 48106-1346 USA 313/761-4700 800/521-0600 Order Number 9111799 Evolutionary morphology of the locomotor apparatus in Arachnida Shultz, Jeffrey Walden, Ph.D. -
Wild About Learning
WILD ABOUT LEARNING An Interdisciplinary Unit Fostering Discovery Learning Written on a 4th grade reading level, Wild Discoveries: Wacky New Animals, is perfect for every kid who loves wacky animals! With engaging full-color photos throughout, the book draws readers right into the animal action! Wild Discoveries features newly discovered species from around the world--such as the Shocking Pink Dragon and the Green Bomber. These wacky species are organized by region with fun facts about each one's amazing abilities and traits. The book concludes with a special section featuring new species discovered by kids! Heather L. Montgomery writes about science and nature for kids. Her subject matter ranges from snake tongues to snail poop. Heather is an award-winning teacher who uses yuck appeal to engage young minds. During a typical school visit, petrified parts and tree guts inspire reluctant writers and encourage scientific thinking. Heather has a B.S. in Biology and a M.S. in Environmental Education. When she is not writing, you can find her painting her face with mud at the McDowell Environmental Center where she is the Education Coordinator. Heather resides on the Tennessee/Alabama border. Learn more about her ten books at www.HeatherLMontgomery.com. Dear Teachers, Photo by Sonya Sones As I wrote Wild Discoveries: Wacky New Animals, I was astounded by how much I learned. As expected, I learned amazing facts about animals and the process of scientifically describing new species, but my knowledge also grew in subjects such as geography, math and language arts. I have developed this unit to share that learning growth with children. -
Proposal for the Synonymy of Some South-East Asian Whip Scorpion Genera (Arachnida, Uropygi, Thelyphonida)
ARTÍCULO: Proposal for the Synonymy of some South-East Asian Whip Scorpion Genera (Arachnida, Uropygi, Thelyphonida) Joachim Haupt Abstract: The South-East Asian whip scorpion fauna has never been systematically re- vised, with numerous new species and genera added. There are several opi- nions what kind of character may serve to distinguish different genera, but it is relatively sure that certain characters cannot serve for this purpose, for exam- ARTÍCULO: ple the number of 'ommatoids' on the metasoma. Therefore genera based on this character are proposed to be removed. Two other genera (Minbosius Proposal for the Synonymy of some Speijer, 1933a, b and Ginosigma Speijer, 1933a, 1936) are also critically re- South-East Asian Whip Scorpion viewed. Genera (Arachnida, Uropygi, Key words: Uropygi, Abaliella n. syn., Chajnus n. syn., Ginosigma, Minbosius n. syn., Thelyphonida) Tetrabalius n. syn., Thelyphonus Taxonomy: Thelyphonus ambonensis (Speijer, 1933) n. comb. for Tetrabalius am- Joachim Haupt boensis Speijer, 1933. Thelyphonus borneensis (Speijer, 1933) n. comb. for Institut of Ecology, Tetrabalius borneensis Speijer, 1933. Thelyphonus borneonus Haupt, 2009 n. nov (replacement name for Tetrabalius borneensis (Speijer, 1933b: 72-73)) n. Technical University Berlin, Germany. comb. Thelyphonus dammermanni (Speijer, 1933b) n. comb. for Tetrabalius Current address: dammermanni Speijer, 1933. Thelyphonus dicranotarsalis (Rowland, 1973a) n. Gluckweg 6, D-12247 Berlin. comb. for Abaliella dicranotarsalis Rowland, 1973, Thelyphonus florensis (Spei- [email protected] jer, 1933) n. comb. for Tetrabalius florensis Speijer, 1933. Thelyphonus gertschi (Rowland, 1973) n. comb. for Abaliella gertschi Rowland, 1973. Thelyphonus kopsteini (Speijer, 1933b) n. comb. for Minbosius kopsteini Speijer, 1933. Thely- phonus luzonicus Haupt, 2009 nomen novum (replacement name for Abaliella manilana (Kraepelin, 1900) n. -
Zootaxa,A New Species of Mastigoproctus
Zootaxa 1463: 39–45 (2007) ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ ZOOTAXA Copyright © 2007 · Magnolia Press ISSN 1175-5334 (online edition) A new species of Mastigoproctus Pocock, 1894 (Thelyphonida: Thelyphonidae) from Venezuela CARLOS VIQUEZ1 & LUIS F. DE ARMAS2 1Investigador Asociado. Instituto Nacional de Biodiversidad (INBio), Santo Domingo, Heredia, P. O. Box 22-3100, Costa Rica. E-mail: [email protected] 2P. O. Box 4327, San Antonio de los Baños, La Habana 32500, Cuba. E-mail: [email protected] Abstract A new species of Venezuelan whip scorpions belonging to the genus Mastigoproctus Pocock is herein described from Bolivar state. This new species mainly differs from the Venezuelan Mastigoproctus formidabilis Hirst, and the Colom- bian Mastigoproctus colombianus Mello-Leitão in male pedipalp sculpture and proportions as well as in female genitalia. Now, Mastigoproctus is represented in Venezuela by two apparently very related species. Key words: Thelyphonida, Uropygi, Mastigoproctus, taxonomy, South America, Venezuela Introduction Whip scorpions (Thelyphonida) form one of the smaller arachnid orders (Harvey, 2002, 2003), representing only 0.1% of the arachnids of the world. However, their large size (most are longer than 40 mm length from the pedipalps to the base of the flagellum) and distinctive vinegary odor make them better known for the peo- ple than some of its relatives, e.g., the ricinuleids and schizomids. Whip scorpions are represented in South America by only two genera: Mastigoproctus Pocock and Thely- phonellus Pocock, the first of which shows a higher species richness. A third genus, Amauromastigon Mello- Leitão, was synonymized with Mastigoproctus by Rowland (2002). -
Short Communication the Miocene Whipscorpion
/LACKtp ZX/& IP Z51& 2007 (2008). The Journal of Arachnology 35:551-553 SHORT COMMUNICATION THE MIOCENE WHIPSCORPION THELYPHONUS HADLEYI IS AN UNIDENTIFIABLE ORGANIC REMAIN Jason A. Dunlop: Museum fur Naturkunde der Humboldt-Universitat zu Berlin, InvalidenstraBe 43, D-10115 Berlin, Germany. E-mail: jason.dunlop@museum. hu-berlin.de O. Erik Tetlie: Department of Geology and Geophysics, Yale University, P.O. Box 208109, New Haven, Connecticut 06520-8109, USA ABSTRACT. The putative fossil whipscorpion Thelyphonus hadleyi Pierce 1945 (Arachnida: Uropygi) from the middle to late Miocene Monterey Formation of Cabrillo Beach, San Pedro, California is reassessed. It is shown here to be nothing more than a fortuitously shaped stain on the rock, apparently partly algal in nature. The fossil record of whipscorpions can thus be restrained to six Pennsylvanian and one Cretaceous species. Keywords: Uropygi, fossil, taxonomy, Monterey shale, Cabrillo Beach Whipscorpions (Arachnida, Uropygi) are a distinc- This leaves only one further fossil whipscorpion in tive group of arachnids characterized by robust, the literature, Thelyphonus hadleyi Pierce 1945, subraptorial pedipalps, a slender first pair of legs and described from the mid to late Miocene (between an opisthosoma ending in a long, flagelliform whip- 15 and 10 Ma) Monterey Formation of Cabrillo like telson. The catalogue of Harvey (2003) recog- Beach, San Pedro, California. Listed by Petrunke- nized a single family containing 103 extant species vitch (1955), Harvey (2003), and Tetlie & Dunlop distributed throughout the tropics of Africa, Asia, (unpubl. data), a particular problem is its assignment and the Americas. Various aspects of their biology to Thelyphonus Latreille 1802, a genus restricted were summarized by Haupt (2000) and references today to South-East Asia (cf. -
Giant Whip Scorpion Mastigoproctus Giganteus Giganteus (Lucas, 1835) (Arachnida: Thelyphonida (=Uropygi): Thelyphonidae) 1 William H
EENY493 Giant Whip Scorpion Mastigoproctus giganteus giganteus (Lucas, 1835) (Arachnida: Thelyphonida (=Uropygi): Thelyphonidae) 1 William H. Kern and Ralph E. Mitchell2 Introduction shrimp can deliver to an unsuspecting finger during sorting of the shrimp from the by-catch. The only whip scorpion found in the United States is the giant whip scorpion, Mastigoproctus giganteus giganteus (Lucas). The giant whip scorpion is also known as the ‘vinegaroon’ or ‘grampus’ in some local regions where they occur. To encounter a giant whip scorpion for the first time can be an alarming experience! What seems like a miniature monster from a horror movie is really a fairly benign creature. While called a scorpion, this arachnid has neither the venom-filled stinger found in scorpions nor the venomous bite found in some spiders. One very distinct and curious feature of whip scorpions is its long thin caudal appendage, which is directly related to their common name “whip-scorpion.” The common name ‘vinegaroon’ is related to their ability to give off a spray of concentrated (85%) acetic acid from the base of the whip-like tail. This produces that tell-tale vinegar-like scent. The common name ‘grampus’ may be related to the mantis shrimp, also called the grampus. The mantis shrimp Figure 1. The giant whip scorpion or ‘vingaroon’, Mastigoproctus is a marine crustacean that can deliver a painful wound giganteus giganteus (Lucas). Credits: R. Mitchell, UF/IFAS with its mantis-like, raptorial front legs. Often captured with shrimp during coastal trawling, shrimpers dislike this creature because of the lightning fast slashing cut mantis 1. -
A Sacrificial Millipede Altruistically Protects Its Swarm Using a Drone
www.nature.com/scientificreports OPEN A sacrificial millipede altruistically protects its swarm using a drone blood enzyme, mandelonitrile Received: 05 January 2016 Accepted: 29 April 2016 oxidase Published: 06 June 2016 Yuko Ishida1,2, Yasumasa Kuwahara1,2, Mohammad Dadashipour1,2, Atsutoshi Ina1,2, Takuya Yamaguchi1,2, Masashi Morita1,2, Yayoi Ichiki1,2 & Yasuhisa Asano1,2 Soldiers of some eusocial insects exhibit an altruistic self-destructive defense behavior in emergency situations when attacked by large enemies. The swarm-forming invasive millipede, Chamberlinius hualienensis, which is not classified as eusocial animal, exudes irritant chemicals such as benzoyl cyanide as a defensive secretion. Although it has been thought that this defensive chemical was converted from mandelonitrile, identification of the biocatalyst has remained unidentified for 40 years. Here, we identify the novel blood enzyme, mandelonitrile oxidase (ChuaMOX), which stoichiometrically catalyzes oxygen consumption and synthesis of benzoyl cyanide and hydrogen peroxide from mandelonitrile. Interestingly the enzymatic activity is suppressed at a blood pH of 7, and the enzyme is segregated by membranes of defensive sacs from mandelonitrile which has a pH of 4.6, the optimum pH for ChuaMOX activity. In addition, strong body muscle contractions are necessary for de novo synthesis of benzoyl cyanide. We propose that, to protect its swarm, the sacrificial millipede also applies a self- destructive defense strategy—the endogenous rupturing of the defensive sacs to mix ChuaMOX and mandelonitrile at an optimum pH. Further study of defensive systems in primitive arthropods will pave the way to elucidate the evolution of altruistic defenses in the animal kingdom. Swarm-forming animals have unique defense systems for protection. -
Histochemical Studies on Two Milliped Species1-2
HISTOCHEMICAL STUDIES ON TWO MILLIPED SPECIES1-2 RAYMOND C. BOWEN Department of Biology, The Cleveland State University, Cleveland, Ohio ABSTRACT Histological and histochemical tests give similar results for the midguts of Floridobolus penneri (Causey, 1957) and Narceus gordanus (Chamberlin, 1943). The peritrophic mem- brane is composed of basic proteins and acid mucopolysaccharides. The epithelium contains basic proteins and large lipid concentrations, including glycolipids, phospholipids, and fatty acids. The luminal epithelial border gives reactions for protein-bound amino groups, tyrosine and phenolic compounds, and neutral fats. Protein-bound amino groups, glycoproteins, acid mucopolysaccharides, and bound lipids are found in the collagenous basement membrane. The circular and longitudinal muscle layers contain basic proteins, tyrosine and phenols, and bound fats. A large glycogen concentration occurs within the sheath membrane. This region, which is primarily basic protein, also gives positive reactions for protein-bound groups and both tyrosine and phenols. Little work has been done on the internal anatomy of diplopods. Early anatomical studies included investigations by Verhoeff (1914), Randow (1924), Attems (1926), Hefner (1929), and Miley (1930). Most biochemical analyses have included the whole animal and not particular organs or tissues. Siddiqui, et al. (1944) isolated dimethylglyoxime from a species of Indian diplopod. Bergmann (1949) reported that Ueno and Yamasaki had isolated a sterol from the saponifiable matter of millipeds. -
Geological History and Phylogeny of Chelicerata
Arthropod Structure & Development 39 (2010) 124–142 Contents lists available at ScienceDirect Arthropod Structure & Development journal homepage: www.elsevier.com/locate/asd Review Article Geological history and phylogeny of Chelicerata Jason A. Dunlop* Museum fu¨r Naturkunde, Leibniz Institute for Research on Evolution and Biodiversity at the Humboldt University Berlin, Invalidenstraße 43, D-10115 Berlin, Germany article info abstract Article history: Chelicerata probably appeared during the Cambrian period. Their precise origins remain unclear, but may Received 1 December 2009 lie among the so-called great appendage arthropods. By the late Cambrian there is evidence for both Accepted 13 January 2010 Pycnogonida and Euchelicerata. Relationships between the principal euchelicerate lineages are unre- solved, but Xiphosura, Eurypterida and Chasmataspidida (the last two extinct), are all known as body Keywords: fossils from the Ordovician. The fourth group, Arachnida, was found monophyletic in most recent studies. Arachnida Arachnids are known unequivocally from the Silurian (a putative Ordovician mite remains controversial), Fossil record and the balance of evidence favours a common, terrestrial ancestor. Recent work recognises four prin- Phylogeny Evolutionary tree cipal arachnid clades: Stethostomata, Haplocnemata, Acaromorpha and Pantetrapulmonata, of which the pantetrapulmonates (spiders and their relatives) are probably the most robust grouping. Stethostomata includes Scorpiones (Silurian–Recent) and Opiliones (Devonian–Recent), while -
Sexual Dimorphism in a Whipscorpion Thelyphonus Indicus Stoliczka Arachnida Uropygj
330 Bull.Br.arachnol.Soc. (1982) 5 (7), 330-331 Sexual dimorphism in a whipscorpion, Observations Thelyphonus indicus Stoliczka (Arachnida, Uropygj) Pedipalps The pedipalp of whipscorpions consists of six segments, viz. coxa, trochanter, femur, patella, tibia K. P. Rajashekhar and Geetha Bali and tarsus (Yoshikura, 1973). The pedipalps of both Department of Zoology, sexes of T. indicus are shown in Fig. 1. They are Bangalore University, Bangalore 560 001, used during courtship and reproduction, and during India prey capture, feeding and burrowing. Trochanter: In T. indicus the trochanter of both sexes has six dorsal spines. In the female the third spine from the anterior end is distinctly larger than Introduction the rest, but this difference is not seen in the male. The arachnid order Uropygi consists of whip- Both sexes have two ventral spines. The trochanter scorpions of the family Thelyphonidae. Ten genera of the female is broader than that of the male, this are recognised. The type genus, Thelyphonus, being a character common to all species of Thely- contains about 27 species, most of which are Indian. phonus. The length/breadth ratio in the female is Earlier studies on the sexual dimorphism of these 0.59 and in the male 0.61. animals indicate that the sexes look similar in Femur: No sexual dimorphism was observed in external features, but differences can be observed on the femur of T. indicus, unlike members of the close examination of the pedipalps and genital genus Typopeltis, in which the femur is much longer sternum (Gravely, 1912, 1916; Weygoldt, 1971, and bulging in the female (Yoshikura, 1973). -
Circumvention of a Millipede's Chemical Defense by A
Proc. Natl. Acad. Sci. USA Vol. 95, pp. 1108–1113, February 1998 Ecology Rendering the inedible edible: Circumvention of a millipede’s chemical defense by a predaceous beetle larva (Phengodidae) (Diplopoda: FloridobolusyColeoptera: Phengodesydefensive glandsybenzoquinones) THOMAS EISNER*†,MARIA EISNER*, ATHULA B. ATTYGALLE‡,MARK DEYRUP§, AND JERROLD MEINWALD‡ *Section of Neurobiology and Behavior, ‡Department of Chemistry, Cornell University, Ithaca, NY 14853; and §Archbold Biological Station, P. O. Box 2057, Lake Placid, FL 33857 Contributed by Thomas Eisner, November 24, 1997 ABSTRACT The larva of the phengodid beetle, Phengodes during the attack. Did the larvae kill the millipedes in some laticollis, feeds on the millipede, Floridobolus penneri, without special way that kept them from activating their defenses? risking exposure to the repellent benzoquinones ordinarily Tiemann speculates that the millipedes might have their nerve ejected by the millipede from its defensive glands when cord severed when the larvae pierced their neck membrane, attacked. The phengodid subdues the millipede by piercing the but he presents no supporting evidence. Also unanswered was millipede’s integument with its hollow sickle-shaped mandi- the question of the ultimate fate of the secretion. Are the bles and apparently injecting gastric fluid. The infusion glands not inevitably ruptured when the larvae feed on the abruptly paralyzes the millipede, which thereby is prevented millipedes’ contents? Why are the larvae not then deterred? from discharging its glands. As the phengodid then imbibes Do they ingest the secretion? the liquefied systemic contents of the dead millipede, the Observations that we have made on another phengodid millipede’s benzoquinones remain harmlessly confined to the larva, Phengodid laticollis from Florida, have enabled us to glands, prevented from diffusing into the millipede’s body address these questions.