B Is for Bug, O Is for Oikos: a Partial Dictionary of Household Arthropods
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Spider Bites
Infectious Disease Epidemiology Section Office of Public Health, Louisiana Dept of Health & Hospitals 800-256-2748 (24 hr number) www.infectiousdisease.dhh.louisiana.gov SPIDER BITES Revised 6/13/2007 Epidemiology There are over 3,000 species of spiders native to the United States. Due to fragility or inadequate length of fangs, only a limited number of species are capable of inflicting noticeable wounds on human beings, although several small species of spiders are able to bite humans, but with little or no demonstrable effect. The final determination of etiology of 80% of suspected spider bites in the U.S. is, in fact, an alternate diagnosis. Therefore the perceived risk of spider bites far exceeds actual risk. Tick bites, chemical burns, lesions from poison ivy or oak, cutaneous anthrax, diabetic ulcer, erythema migrans from Lyme disease, erythema from Rocky Mountain Spotted Fever, sporotrichosis, Staphylococcus infections, Stephens Johnson syndrome, syphilitic chancre, thromboembolic effects of Leishmaniasis, toxic epidermal necrolyis, shingles, early chicken pox lesions, bites from other arthropods and idiopathic dermal necrosis have all been misdiagnosed as spider bites. Almost all bites from spiders are inflicted by the spider in self defense, when a human inadvertently upsets or invades the spider’s space. Of spiders in the United States capable of biting, only a few are considered dangerous to human beings. Bites from the following species of spiders can result in serious sequelae: Louisiana Office of Public Health – Infectious Disease Epidemiology Section Page 1 of 14 The Brown Recluse: Loxosceles reclusa Photo Courtesy of the Texas Department of State Health Services The most common species associated with medically important spider bites: • Physical characteristics o Length: Approximately 1 inch o Appearance: A violin shaped mark can be visualized on the dorsum (top). -
Development of the Cursorial Spider, Cheiracanthium Inclusum (Araneae: Miturgidae), on Eggs of Helicoverpa Zea (Lepidoptera: Noctuidae)1
Development of the Cursorial Spider, Cheiracanthium inclusum (Araneae: Miturgidae), on Eggs of Helicoverpa zea (Lepidoptera: Noctuidae)1 R. S. Pfannenstiel2 Beneficial Insects Research Unit, USDA-ARS, Weslaco, Texas 78596 USA J. Entomol. Sci. 43(4): 418422 (October 2008) Abstract Development of the cursorial spider, Cheiracanthium inclusum (Hentz) (Araneae: Miturgidae), from emergence to maturity on a diet of eggs of the lepidopteran pest Helicoverpa zea (Boddie) (Lepidoptera: Noctuidae) was characterized. Cheiracanthium inclusum developed to adulthood with no mortality while feeding on a diet solely of H. zea eggs and water. The number of instars to adulthood varied from 4-5 for males and from 4-6 for females, although most males (84.6%) and females (66.7%) required 5 instars. Males and females took a similar time to become adults (54.2 ± 4.0 and 53.9 ± 2.0 days, respectively). Egg consumption was similar between males and females for the first 4 instars, but differed for the 51 instar and for the total number of eggs consumed to reach adulthood (651.0 ± 40.3 and 866.5 ± 51.4 eggs for males and females, respectively). Individual consumption rates suggest the potential for high impact of C. inclusum individuals on pest populations. Development was faster and survival greater than in previous studies of C. inc/usum development. Key Words spider development, egg predation Spiders have been observed feeding on lepidopteran eggs in several crops (re- viewed by Nyffeler et al. 1990), but only recently has the frequency of these obser- vations (Pfannenstiel and Yeargan 2002, Pfartnenstiel 2005, 2008) suggested that lepidopteran eggs may be a common prey item for some families of cursorial spiders. -
The Conservation Biology of Tortoises
The Conservation Biology of Tortoises Edited by Ian R. Swingland and Michael W. Klemens IUCN/SSC Tortoise and Freshwater Turtle Specialist Group and The Durrell Institute of Conservation and Ecology Occasional Papers of the IUCN Species Survival Commission (SSC) No. 5 IUCN—The World Conservation Union IUCN Species Survival Commission Role of the SSC 3. To cooperate with the World Conservation Monitoring Centre (WCMC) The Species Survival Commission (SSC) is IUCN's primary source of the in developing and evaluating a data base on the status of and trade in wild scientific and technical information required for the maintenance of biological flora and fauna, and to provide policy guidance to WCMC. diversity through the conservation of endangered and vulnerable species of 4. To provide advice, information, and expertise to the Secretariat of the fauna and flora, whilst recommending and promoting measures for their con- Convention on International Trade in Endangered Species of Wild Fauna servation, and for the management of other species of conservation concern. and Flora (CITES) and other international agreements affecting conser- Its objective is to mobilize action to prevent the extinction of species, sub- vation of species or biological diversity. species, and discrete populations of fauna and flora, thereby not only maintain- 5. To carry out specific tasks on behalf of the Union, including: ing biological diversity but improving the status of endangered and vulnerable species. • coordination of a programme of activities for the conservation of biological diversity within the framework of the IUCN Conserva- tion Programme. Objectives of the SSC • promotion of the maintenance of biological diversity by monitor- 1. -
Genus Boophilus Curtice Genus Rhipicentor Nuttall & Warburton
3 CONTENTS General remarks 4 Genus Amblyomma Koch 5 Genus Anomalohimalaya Hoogstraal, Kaiser & Mitchell 46 Genus Aponomma Neumann 47 Genus Boophilus Curtice 58 Genus Hyalomma Koch. 63 Genus Margaropus Karsch 82 Genus Palpoboophilus Minning 84 Genus Rhipicentor Nuttall & Warburton 84 Genus Uroboophilus Minning. 84 References 86 SUMMARI A list of species and subspecies currently included in the tick genera Amblyomma, Aponomma, Anomalohimalaya, Boophilus, Hyalomma, Margaropus, and Rhipicentor, as well as in the unaccepted genera Palpoboophilus and Uroboophilus is given in this paper. The published synonymies and authors of each spécifie or subspecific name are also included. Remaining tick genera have been reviewed in part in a previous paper of this series, and will be finished in a future third part. Key-words: Amblyomma, Aponomma, Anomalohimalaya, Boophilus, Hyalomma, Margaropus, Rhipicentor, Uroboophilus, Palpoboophilus, species, synonymies. RESUMEN Se proporciona una lista de las especies y subespecies actualmente incluidas en los géneros Amblyomma, Aponomma, Anomalohimalaya, Boophilus, Hyalomma, Margaropus y Rhipicentor, asi como en los géneros no aceptados Palpoboophilus and Uroboophilus. Se incluyen también las sinonimias publicadas y los autores de cada nombre especifico o subespecifico. Los restantes géneros de garrapatas han sido revisados en parte en un volumen previo de esta serie, y serân terminados en una futura tercera parte. Palabras claves Amblyomma, Aponomma, Anomalohimalaya, Boophilus, Hyalomma, Margaropus, Rhipicentor, Uroboophilus, Palpoboophilus, especies, sinonimias. 4 GENERAL REMARKS Following is a list of species and subspecies of ticks d~e scribed in the genera Amblyomma, Aponomma, Anomalohimalaya, Boophilus, Hyalorma, Margaropus, and Rhipicentor, as well as in the unaccepted genera Palpoboophilus and Uroboophilus. The first volume (Estrada- Pena, 1991) included data for Haemaphysalis, Anocentor, Dermacentor, and Cosmiomma. -
German Cockroach
Pest Profile Photo credit: Gary Alpert, Harvard University, Bugwood.org Common Name: German Cockroach Scientific Name: Blattella germanica Order and Family: Blattodea, Blattellidae Size and Appearance: Length (mm) Appearance Egg Small, brown and purse-shaped containing 30-40 eggs Egg case or ootheca-8mm Larva/Nymph Adult Brown to dark brown coloring with two longitudinal dark 10-15mm bands on the pronotum. Males have their terminal segment of the abdomen visible while the females’ wings cover theirs completely. Pupa (if applicable) Type of feeder (Chewing, sucking, etc.): Chewing mouthparts Host plant/s: German cockroaches are omnivorous, feeding on food scraps, animal feed, paper products, and any kind of garbage. Description of Damage (larvae and adults): German cockroaches are domestic pests that readily infest structures, preferring to inhabit moist areas such as kitchens and bathrooms. They are onsidered to be a public health concern due to their ability to carry pathogens and disperse them. Cockroach feces, shed skins, and body parts are also considered major allergens. In severe instances, biting can occur. German cockroach infestations can readily become a major issue in ideal growth situations. They reproduce continuously and have many overlapping generations that can be present at one time. References: Jacobs, S. (2013). German Cockroaches. Insect Advice from Extension. Pennsylvania State University. https://ento.psu.edu/extension/factsheets/german-cockroaches Valles, S. (2017). German Cockroach-Blattella germanica. Featured Creatures. University of Florida. http://entnemdept.ufl.edu/CREATURES/urban/roaches/german.htm . -
Toxins-67579-Rd 1 Proofed-Supplementary
Supplementary Information Table S1. Reviewed entries of transcriptome data based on salivary and venom gland samples available for venomous arthropod species. Public database of NCBI (SRA archive, TSA archive, dbEST and GenBank) were screened for venom gland derived EST or NGS data transcripts. Operated search-terms were “salivary gland”, “venom gland”, “poison gland”, “venom”, “poison sack”. Database Study Sample Total Species name Systematic status Experiment Title Study Title Instrument Submitter source Accession Accession Size, Mb Crustacea The First Venomous Crustacean Revealed by Transcriptomics and Functional Xibalbanus (former Remipedia, 454 GS FLX SRX282054 454 Venom gland Transcriptome Speleonectes Morphology: Remipede Venom Glands Express a Unique Toxin Cocktail vReumont, NHM London SRP026153 SRR857228 639 Speleonectes ) tulumensis Speleonectidae Titanium Dominated by Enzymes and a Neurotoxin, MBE 2014, 31 (1) Hexapoda Diptera Total RNA isolated from Aedes aegypti salivary gland Normalized cDNA Instituto de Quimica - Aedes aegypti Culicidae dbEST Verjovski-Almeida,S., Eiglmeier,K., El-Dorry,H. etal, unpublished , 2005 Sanger dideoxy dbEST: 21107 Sequences library Universidade de Sao Paulo Centro de Investigacion Anopheles albimanus Culicidae dbEST Adult female Anopheles albimanus salivary gland cDNA library EST survey of the Anopheles albimanus transcriptome, 2007, unpublished Sanger dideoxy Sobre Enfermedades dbEST: 801 Sequences Infeccionsas, Mexico The salivary gland transcriptome of the neotropical malaria vector National Institute of Allergy Anopheles darlingii Culicidae dbEST Anopheles darlingi reveals accelerated evolution o genes relevant to BMC Genomics 10 (1): 57 2009 Sanger dideoxy dbEST: 2576 Sequences and Infectious Diseases hematophagyf An insight into the sialomes of Psorophora albipes, Anopheles dirus and An. Illumina HiSeq Anopheles dirus Culicidae SRX309996 Adult female Anopheles dirus salivary glands NIAID SRP026153 SRS448457 9453.44 freeborni 2000 An insight into the sialomes of Psorophora albipes, Anopheles dirus and An. -
Ecological Investigation, Density, Infestation Rate and Control Strategy of German Cockroach, Blattella Germanica (L.) in Two Hospitals in Ismailia, Egypt
Arthropods, 2013, 2(4): 216-224 Article Ecological investigation, density, infestation rate and control strategy of German cockroach, Blattella germanica (L.) in two hospitals in Ismailia, Egypt M.F. Mahmoud, A.F. El-Bahrawy, H.M. El-Sharabasy, Y.S. El-Badry, G.A. El-Kady Plant Protection Department, Faculty of Agriculture, Suez Canal University, 41522 Ismailia, Egypt E-mail: [email protected] Received 2 June 2013; Accepted 8 July 2013; Published online 1 December 2013 Abstract A study was conducted to investigate the ecological situation, density, infestation rate and control strategy of German cockroach, Blattella germanica indoors in two hospitals in Ismailia Governorate, Egypt. The sticky traps method was used for 12 months in 2012. The cockroach index, sanitation and ventilation rate tables were tools to investigate the effectiveness of sanitation and related factors on B. germanica in Ismailia. Results showed that the population density of B. germanica increased gradually from January to July, and then decreased gradually till December of 2012 in both hospitals. The population density of B. germanica captured from hospital 1 (urban) was higher than hospital 2 (rural) in all months. Moreover, the number of German cockroach caught from different apartments in both hospitals was very significant different. Among these apartments, kitchen had the highest number of German cockroach, density, infestation rate and percent of nymphs. The highest population density was in kitchen (298.44), followed by dry food store (69.99), furniture room (25.91) and patient room (8.94), for hospital 1. However, the population was low in all apartments in hospital 2. -
Can Spiders Effectively Control Pest Populations?
ISSN 1070–1524 Spider Predation in Agroecosystems: Can Spiders Effectively Control Pest Populations? Darlene Maloney Francis A. Drummond and Randy Alford Technical Bulletin 190 August 2003 MAINE AGRICULTURAL AND FOREST EXPERIMENT STATION The University of Maine Spider Predation in Agroecosystems: Can Spiders Effectively Control Pest Populations? Darlene Maloney Graduate Student Francis A. Drummond Professor and Randy Alford Professor Department of Biological Sciences The University of Maine Orono ME 04469 The Maine Agricultural and Forest Experiment Station provides equal program opportunities without regard to race, age, sex or preference, creed, national origin, or disability. CONTENTS SPIDERS AS PREDATORS IN AGRICULTURAL ECOSYSTEMS ......................................................................... 5 REDUCTION OF INSECT PEST DENSITIES BY SPIDERS ................................................................................... 6 Top-Down Effects .................................................................... 8 Wasteful Killing ...................................................................... 12 Spider Assemblages............................................................... 13 Prey Specialization ................................................................ 14 Role of the Generalist Spider ............................................... 16 Functional Response ............................................................. 17 Numerical Response ............................................................. 20 EFFECTS -
Street Cats, City Rats: Synanthropes and Cinematic Urban Ecologies
The Cine-Files, Issue 14 (spring 2019) Street Cats, City Rats: Synanthropes and Cinematic Urban Ecologies Graig Uhlin The second season of the BBC documentary series Planet Earth concluded with a somewhat atypical episode that focused on animals in urban environments. The episode, titled “Cities,” highlights the creation of habitats by various animal species out of the “unnatural” landscapes of global metropolises – including peregrine falcons in New York, leopards in Mumbai, and raccoons in Toronto. Urban development encroaches on natural habitats, and as animals move into urban spaces, they must adapt to new terrains in order to survive. The episode at times stresses the similarity of these built environments to the animals’ original environs; New York’s skyscrapers, for instance, provide falcons with tall ledges for nesting and updraft for flight, as well as ample prey at street level. Accordingly, the city is presented as an environment subject to the same competitive pressures seen in nature, wherein animals enact the same dominance rituals and territorial disputes. This ecosystem’s “top predator,” the voiceover narration comments, is humanity; it is people who “make the rules here.” Nonetheless, the episode emphasizes that urban habitats are often beneficial for animals. In Jodhpur, India, langur monkeys have access to an abundant food supply, provided by the residents of the city. This “constantly replenished source of food” enables more time for intra-species play and greater population growth, as the langurs “create troops far larger than in the forests nearby.” Far from functioning as a hindrance to the flourishing of animal life, the urban ecosystem provides a comparative advantage. -
German Cockroach, Blattella Germanica (Linnaeus) (Insecta: Blattodea: Blattellidae)1 S
EENY-002 doi.org/10.32473/edis-in1283-2020 German Cockroach, Blattella germanica (Linnaeus) (Insecta: Blattodea: Blattellidae)1 S. Valles2 The Featured Creatures collection provides in-depth profiles of Distribution insects, nematodes, arachnids and other organisms relevant The German cockroach is found throughout the world to Florida. These profiles are intended for the use of interested in association with humans. They are unable to survive laypersons with some knowledge of biology as well as in locations away from humans or human activity. The academic audiences. major factor limiting German cockroach survival appears to be cold temperatures. Studies have shown that German Introduction cockroaches were unable to colonize inactive ships during The German cockroach (Figure 1) is the cockroach of cool temperatures and could not survive in homes without concern, the species that gives all other cockroaches a bad central heating in northern climates. The availability name. It occurs in structures throughout Florida, and is of water, food, and harborage also govern the ability of the species that typically plagues multifamily dwellings. In German cockroaches to establish populations, and limit Florida, the German cockroach may be confused with the growth. Asian cockroach, Blattella asahinai Mizukubo. While these cockroaches are very similar, there are some differences that Description a practiced eye can discern. Egg Eggs are carried in an egg case, or ootheca, by the female until just before hatch occurs. The ootheca can be seen protruding from the posterior end (genital chamber) of the female. Nymphs will often hatch from the ootheca while the female is still carrying it (Figure 2). -
Volume 28, No. 2, Fall 2009
Fall 2009 Vol. 28, No. 2 NEWSLETTER OF THE BIOLOGICAL SURVEY OF CANADA (TERRESTRIAL ARTHROPODS) Table of Contents General Information and Editorial Notes ..................................... (inside front cover) News and Notes News from the Biological Survey of Canada ..........................................................27 Report on the first AGM of the BSC .......................................................................27 Robert E. Roughley (1950-2009) ...........................................................................30 BSC Symposium at the 2009 JAM .........................................................................32 Demise of the NRC Research Press Monograph Series .......................................34 The Evolution of the BSC Newsletter .....................................................................34 The Alan and Anne Morgan Collection moves to Guelph ......................................34 Curation Blitz at Wallis Museum ............................................................................35 International Year of Biological Diversity 2010 ......................................................36 Project Update: Terrestrial Arthropods of Newfoundland and Labrador ..............37 Border Conflicts: How Leafhoppers Can Help Resolve Ecoregional Viewpoints 41 Project Update: Canadian Journal of Arthropod Identification .............................55 Arctic Corner The Birth of the University of Alaska Museum Insect Collection ............................57 Bylot Island and the Northern Biodiversity -
Irish Ants (Hymenoptera, Formicidae): Distribution, Conservation and Functional Relationships
Irish Ants (Hymenoptera, Formicidae): Distribution, Conservation and Functional Relationships Submitted by: Dipl. Biol. Robin Niechoj Supervisor: Prof. John Breen Submitted in accordance with the academic requirements for the Degree of Doctor of Philosophy to the Department of Life Sciences, Faculty of Science and Engineering, University of Limerick Limerick, April 2011 Declaration I hereby declare that I am the sole author of this thesis and that it has not been submitted for any other academic award. References and acknowledgements have been made, where necessary, to the work of others. Signature: Date: Robin Niechoj Department of Life Sciences Faculty of Science and Engineering University of Limerick ii Acknowledgements/Danksagung I wish to thank: Dr. John Breen for his supervision, encouragement and patience throughout the past 5 years. His infectious positive attitude towards both work and life was and always will be appreciated. Dr. Kenneth Byrne and Dr. Mogens Nielsen for accepting to examine this thesis, all the CréBeo team for advice, corrections of the report and Dr. Olaf Schmidt (also) for verification of the earthworm identification, Dr. Siobhán Jordan and her team for elemental analyses, Maria Long and Emma Glanville (NPWS) for advice, Catherine Elder for all her support, including fieldwork and proof reading, Dr. Patricia O’Flaherty and John O’Donovan for help with the proof reading, Robert Hutchinson for his help with the freeze-drying, and last but not least all the staff and postgraduate students of the Department of Life Sciences for their contribution to my work. Ich möchte mich bedanken bei: Katrin Wagner für ihre Hilfe im Labor, sowie ihre Worte der Motivation.