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Dermatologic Manifestations and Complications of COVID-19
American Journal of Emergency Medicine 38 (2020) 1715–1721 Contents lists available at ScienceDirect American Journal of Emergency Medicine journal homepage: www.elsevier.com/locate/ajem Dermatologic manifestations and complications of COVID-19 Michael Gottlieb, MD a,⁎,BritLong,MDb a Department of Emergency Medicine, Rush University Medical Center, United States of America b Department of Emergency Medicine, Brooke Army Medical Center, United States of America article info abstract Article history: The novel coronavirus disease of 2019 (COVID-19) is associated with significant morbidity and mortality. While Received 9 May 2020 much of the focus has been on the cardiac and pulmonary complications, there are several important dermato- Accepted 3 June 2020 logic components that clinicians must be aware of. Available online xxxx Objective: This brief report summarizes the dermatologic manifestations and complications associated with COVID-19 with an emphasis on Emergency Medicine clinicians. Keywords: COVID-19 Discussion: Dermatologic manifestations of COVID-19 are increasingly recognized within the literature. The pri- fi SARS-CoV-2 mary etiologies include vasculitis versus direct viral involvement. There are several types of skin ndings de- Coronavirus scribed in association with COVID-19. These include maculopapular rashes, urticaria, vesicles, petechiae, Dermatology purpura, chilblains, livedo racemosa, and distal limb ischemia. While most of these dermatologic findings are Skin self-resolving, they can help increase one's suspicion for COVID-19. Emergency medicine Conclusion: It is important to be aware of the dermatologic manifestations and complications of COVID-19. Knowledge of the components is important to help identify potential COVID-19 patients and properly treat complications. © 2020 Elsevier Inc. -
Guidelines for Case-Based Reporting
澳門特別行政區 傳染病強制申報機制 Macao SAR Notifiable Communicable Diseases Guidelines for Case-based Reporting (FIRST DRAFT) 2008 澳門特別行局區政府衛生局 Health Bureau, Government of Macao Special Administrative Region ii iii Contents Contents ............................................................................................................................................................ iii Signs and abbreviations .................................................................................................................................... 5 Acquired immunodeficiency syndrome (AIDS) ............................................................................................... 6 Acute gastroenteropathy due to Norwalk agent (ICD-9 : 008.6, ICD-10 : A08.1 ) ...................................... 11 Acute haemorrhagic conjunctivitis (ICD-9 : 077, ICD-10 : B30.3 ) ............................................................. 12 Acute poliomyelitis ICD-9 045 ICD-10 A80 ................................................................................... 13 Amoebiasis ICD-9 006 ICD-10 A06 ............................................................................................... 14 Anogenital herpesviral (herpes simplex) infection ICD-9 054 ICD-10 A60 ............................... 16 Anthrax ICD-9 022 ICD-10 A22 .................................................................................................. 17 Chickenpox (Varicella) ICD-9 052 ICD-10 B01 ............................................................................ 19 Cholera ICD-9 -
The Clinical Features of Smallpox
CHAPTER 1 THE CLINICAL FEATURES OF SMALLPOX Contents Page Introduction 2 Varieties of smallpox 3 The classification of clinical types of variola major 4 Ordinary-type smallpox 5 The incubation period 5 Symptoms of the pre-eruptive stage 5 The eruptive stage 19 Clinical course 22 Grades of severity 22 Modified-type smallpox 22 Variola sine eruptione 27 Subclinical infection with variola major virus 30 Evidence from viral isolations 30 Evidence from serological studies 30 Flat-type smallpox 31 The rash 31 Clinical course 32 Haemorrhagic-type smallpox 32 General features 32 Early haemorrhagic-type smallpox 37 Late haemorrhagic-type smallpox 38 Variola minor 38 Clinical course 38 Variola sine eruptione and subclinical infection 40 Smallpox acquired by unusual routes of infection 40 Inoculation variola and variolation 40 Congenital smallpox 42 Effects of vaccination on the clinical course of smallpox 42 Effects of vaccination on toxaemia 43 Effects of vaccination on the number of lesions 43 Effects of vaccination on the character and evolution of the rash 43 Effects of vaccination in variola minor 44 Laboratory findings 44 Virological observations 44 Serological observations 45 Haematological observations 46 1 2 SMALLPOX AND ITS ERADICATION Page Complications 47 The skin 47 Ocular system 47 Joints and bones 47 Respiratory system 48 Gastrointestinal system 48 Genitourinary system 49 Central nervous system 49 Sequelae 49 Pockmarks 49 Blindness 50 Limb deformities 50 Prognosis of variola major 50 Calculation of case-fatality rates 50 Effects -
Measles Diagnostic Tool
Measles Prodrome and Clinical evolution E Fever (mild to moderate) E Cough E Coryza E Conjunctivitis E Fever spikes as high as 105ºF Koplik’s spots Koplik’s Spots E E Viral enanthem of measles Rash E Erythematous, maculopapular rash which begins on typically starting 1-2 days before the face (often at hairline and behind ears) then spreads to neck/ the rash. Appearance is similar to “grains of salt on a wet background” upper trunk and then to lower trunk and extremities. Evolution and may become less visible as the of rash 1-3 days. Palms and soles rarely involved. maculopapular rash develops. Rash INCUBATION PERIOD Fever, STARTS on face (hairline & cough/coryza/conjunctivitis behind ears), spreads to trunk, Average 8-12 days from exposure to onset (sensitivity to light) and then to thighs/ feet of prodrome symptoms 0 (average interval between exposure to onset rash 14 day [range 7-21 days]) -4 -3 -2 -1 1234 NOT INFECTIOUS higher fever (103°-104°) during this period rash fades in same sequence it appears INFECTIOUS 4 days before rash and 4 days after rash Not Measles Rubella Varicella cervical lymphadenopathy. Highly variable but (Aka German Measles) (Aka Chickenpox) Rash E often maculopapular with Clinical manifestations E Clinical manifestations E Generally mild illness with low- Mild prodrome of fever and malaise multiforme-like lesions and grade fever, malaise, and lymph- may occur one to two days before may resemble scarlet fever. adenopathy (commonly post- rash. Possible low-grade fever. Rash often associated with painful edema hands and feet. auricular and sub-occipital). -
Nih Guidelines for Research Involving Recombinant Or Synthetic Nucleic Acid Molecules (Nih Guidelines)
NIH GUIDELINES FOR RESEARCH INVOLVING RECOMBINANT OR SYNTHETIC NUCLEIC ACID MOLECULES (NIH GUIDELINES) APRIL 2019 DEPARTMENT OF HEALTH AND HUMAN SERVICES National Institutes of Health ************************************************************************************************************************ Visit the NIH OSP Web site at: https://osp.od.nih.gov NIH OFFICE OF SCIENCE POLICY CONTACT INFORMATION: Office of Science Policy, National Institutes of Health, 6705 Rockledge Drive, Suite 750, MSC 7985, Bethesda, MD 20892-7985 (20817 for non-USPS mail), (301) 496-9838; (301) 496-9839 (fax). For inquiries, information requests, and report submissions: [email protected] These NIH Guidelines shall supersede all earlier versions until further notice. ************************************************************************************************************************ Page 2 - NIH Guidelines for Research Involving Recombinant or Synthetic Nucleic Acid Molecules (April 2019) FEDERAL REGISTER NOTICES Effective June 24, 1994, Published in Federal Register, July 5, 1994 (59 FR 34472) Amendment Effective July 28, 1994, Federal Register, August 5, 1994 (59 FR 40170) Amendment Effective April 17, 1995, Federal Register, April 27, 1995 (60 FR 20726) Amendment Effective December 14, 1995, Federal Register, January 19, 1996 (61 FR 1482) Amendment Effective March 1, 1996, Federal Register, March 12, 1996 (61 FR 10004) Amendment Effective January 23, 1997, Federal Register, January 31, 1997 (62 FR 4782) Amendment Effective September 30, 1997, -
Oklahoma Disease Reporting Manual
Oklahoma Disease Reporting Manual List of Contributors Acute Disease Service Lauri Smithee, Chief Laurence Burnsed Anthony Lee Becky Coffman Renee Powell Amy Hill Jolianne Stone Christie McDonald Jeannie Williams HIV/STD Service Jan Fox, Chief Kristen Eberly Terrainia Harris Debbie Purton Janet Wilson Office of the State Epidemiologist Kristy Bradley, State Epidemiologist Public Health Laboratory Garry McKee, Chief Robin Botchlet John Murray Steve Johnson Table of Contents Contact Information Acronyms and Jargon Defined Purpose and Use of Disease Reporting Manual Oklahoma Disease Reporting Statutes and Rules Oklahoma Statute Title 63: Public Health and Safety Article 1: Administration Article 5: Prevention and Control of Disease Oklahoma Administrative Code Title 310: Oklahoma State Department of Health Chapter 515: Communicable Disease and Injury Reporting Chapter 555: Notification of Communicable Disease Risk Exposure Changes to the Communicable Disease and Injury Reporting Rules To Which State Should You Report a Case? Public Health Investigation and Disease Detection of Oklahoma (PHIDDO) Public Health Laboratory Oklahoma State Department of Health Laboratory Services Electronic Public Health Laboratory Requisition Disease Reporting Guidelines Quick Reference List of Reportable Infectious Diseases by Service Human Immunodeficiency Virus (HIV) Infection and Acquired Immunodeficiency Syndrome (AIDS) Anthrax Arboviral Infection Bioterrorism – Suspected Disease Botulism Brucellosis Campylobacteriosis CD4 Cell Count < 500 Chlamydia trachomatis, -
615 Cross Immunity Experiments in Monkeys Between Variola, Alastrim
615 CROSS IMMUNITY EXPERIMENTS IN MONKEYS BETWEEN VARIOLA, ALASTRIM AND VACCINIA BY E. S. HORGAN, M.D. AND MANSOUR ALI HASBEB Stack Medical Research Laboratories, Khartoum PART I. VARIOLA AND VACCINIA IN spite of the voluminous literature, much of it of a polemical rather than scientific nature, on the immunity relationships between variola and vaccinia, comparatively little work has been carried out on experimental animals, and the results of different workers are not altogether concordant. Even in the important article by Blaxall (1930) in the System of Bacteriology only a few lines were devoted to a discussion of the existing experimental evidence, and also in the more recent article by Gastinel (1938) this particular problem has been very briefly treated. PRESENT EXPERIMENTAL WORK Opportunity was taken during an outbreak of virulent smallpox in the Gezira cotton-growing area of the Anglo-Egyptian Sudan in 1938 to collect variolous material from different patients, and to inoculate a series of monkeys. TECHNIQUE The contents of the vesicles or pustules were aspirated into capillary tubes, which were immediately packed in ice in a vacuum flask and brought directly to Khartoum, 80 miles from the epidemic zone. The capillary tubes with the pus were ground up in a mortar with distilled water (pH. 7*0), the suspension lightly centrifuged to throw down the powdered glass, and the turbid super- natant fluid pipetted off and stored in the freezing chamber of a refrigerator. Inoculation was made on to the scarified bellies of monkeys (Cercopithecus sebaeus), the amount of inoculum and area varying in different animals, and the subsequent immunity tests were carried out with both vaccinia and variola. -
Neutralization Tests on the Chorio-Allan- Tois with Unabsorbed and Absorbed Immuine Sera
789 THE VIRUSES OF VARIOLA, VACCINIA, COWPOX AND ECTRO- MELIA.-NEUTRALIZATION TESTS ON THE CHORIO-ALLAN- TOIS WITH UNABSORBED AND ABSORBED IMMUINE SERA. A. W. DOWNIE AND K. McCARTHY. From the Department of Bacteriology, Univer8ity of Liverpool. Received for publication October 30, 1950. IN a previous paper we recorded the results of neutralization tests with the viruses of variola, vaccinia, cowpox and ectromelia and corresponding immune sera (McCarthy and Downie, 1948). Four strains of variola, two strains each of vaccinia and cowpox and one strain each of alastrim and ectromelia viruses were examined. Immune sera from immunized fowls and rabbits and from man were used in neutralization tests made by inoculating serum-virus mixtures on the chorio-allantois of chick embryos or into the skin of rabbits. In the tests on the chorio-allantois, undiluted immune sera prepared against each of the virus strains was tested against a constant amount of virus, and in the rabbit skin constant amounts of sera were tested against varying amounts of cowpox and vaccinia viruses. These cross-neutralization tests showed the close relationship of the strains studied and failed to demonstrate distinct differences among them. In an attempt to disclose such differences we have made an estimate of the neutra- lizing antibody in immune sera by testing five-fold dilutions of the sera against homologous and heterologous viruses. In this extension of the previous work only immune sera prepared in fowls have been studied and all neutralization tests have been made on the chorio-allantois of chick embryos. In addition, we have carried out absorption of immune fowl sera with virus suspensions and tested the absorbed sera for neutralizing power. -
Institutional Biosafety Reviewable Agents
Institutional Biosafety Reviewable Agents Class 1 Agents: All bacterial, parasitic, fungal, viral, rickettsial and chlamydial agents not included in higher classes. Class 2 Agents: Bacterial Agents: • Acinetobacter calcoaceticus • Actinobacillus (all species, except mallei [Class 3]) • Aeromonas hydrophila • Arizona hinshawii (all serotypes) • Bacillus anthracis • Bordetella (all species) • Borrelia recurrentis, B. vincenti • Campylobacter fetus • Campylobacter jejuni • Chlamydia psittaci • Chlamydia trachomatis • Clostridium botulinum, Cl. chauvoei, Cl. haemolyticum, Cl.histolyticum, Cl. novyi, Cl. speticum, Cl. tetani Corynebacterium diphtheriae, C. equi, C. haemolyticum, C. pseudotuberculosis, C. pyogenes, C. renale • Edwardsiella tarda • Erysipelothrix insidiosa • Escherichia coli (all enteropathogenic, enterotoxigenic, enteroinvasive & strains bearing K1 antigen) • Haemophilus ducreyi, H. influenzae • Klebsiella (all species & serotypes) • Legionella pneumophila • Leptospira interrogans (all serotypes) • Listeria (all species) • Moraxella (all species) • Mycobacteria (all species-except Class 3) • Mycoplasma (all species-except Mycoplasma mycoides & Mycoplasma agalactiae, Class 5) • Neisseria gonorrhoeae, N. meningitidis • Pasteurella (all species-except Class 3) • Salmonella (all species & serotypes) • Shigella (all species & serotypes) • Sphaerophorus necrophorus • Staphylococcus aureus • Streptobacillus moniliformis • Streptococcus pneumoniae • Streptococcus pyogenes • Treponema carateum, T. pallidum & T. pertenue • Vibrio cholerae -
Zoonotic Poxviruses Associated with Companion Animals
Animals 2011, 1, 377-395; doi:10.3390/ani1040377 OPEN ACCESS animals ISSN 2076-2615 www.mdpi.com/journal/animals Review Zoonotic Poxviruses Associated with Companion Animals Danielle M. Tack 1,2,* and Mary G. Reynolds 2 1 Epidemic Intelligence Service, Centers for Disease Control and Prevention, Atlanta, GA 30333, USA 2 Poxvirus and Rabies Branch, Centers for Disease Control and Prevention, Atlanta, GA 30333, USA; E-Mail: [email protected] * Author to whom correspondence should be addressed; E-Mail: [email protected]; Tel.: +1-404-639-5278. Received: 13 October 2011; in revised form: 2 November 2011 / Accepted: 15 November 2011 / Published: 17 November 2011 Simple Summary: Contemporary enthusiasm for the ownership of exotic animals and hobby livestock has created an opportunity for the movement of poxviruses—such as monkeypox, cowpox, and orf—outside their traditional geographic range bringing them into contact with atypical animal hosts and groups of people not normally considered at risk. It is important that pet owners and practitioners of human and animal medicine develop a heightened awareness for poxvirus infections and understand the risks that can be associated with companion animals and livestock. This article reviews the epidemiology and clinical features of zoonotic poxviruses that are most likely to affect companion animals. Abstract: Understanding the zoonotic risk posed by poxviruses in companion animals is important for protecting both human and animal health. The outbreak of monkeypox in the United States, as well as current reports of cowpox in Europe, point to the fact that companion animals are increasingly serving as sources of poxvirus transmission to people. -
Viral Component of the Human Genome V
ISSN 0026-8933, Molecular Biology, 2017, Vol. 51, No. 2, pp. 205–215. © Pleiades Publishing, Inc., 2017. Original Russian Text © V.M. Blinov, V.V. Zverev, G.S. Krasnov, F.P. Filatov, A.V. Shargunov, 2017, published in Molekulyarnaya Biologiya, 2017, Vol. 51, No. 2, pp. 240–250. REVIEWS UDC 578.264.9 Viral Component of the Human Genome V. M. Blinova, V. V. Zvereva, G. S. Krasnova, b, c, F. P. Filatova, d, *, and A. V. Shargunova aMechnikov Research Institute of Vaccines and Sera, Moscow, 105064 Russia bEngelhardt Institute of Molecular Biology, Russian Academy of Sciences, Moscow, 111911 Russia cOrekhovich Research Institute of Biomedical Chemistry, Moscow, 119121 Russia dGamaleya Research Center of Epidemiology and Microbiology, Moscow, 123098 Russia *e-mail: [email protected] Received December 27, 2015; in final form, April 27, 2016 Abstract⎯Relationships between viruses and their human host are traditionally described from the point of view taking into consideration hosts as victims of viral aggression, which results in infectious diseases. How- ever, these relations are in fact two-sided and involve modifications of both the virus and host genomes. Mutations that accumulate in the populations of viruses and hosts may provide them advantages such as the ability to overcome defense barriers of host cells or to create more efficient barriers to deal with the attack of the viral agent. One of the most common ways of reinforcing anti-viral barriers is the horizontal transfer of viral genes into the host genome. Within the host genome, these genes may be modified and extensively expressed to compete with viral copies and inhibit the synthesis of their products or modulate their functions in other ways. -
RASH in INFECTIOUS DISEASES of CHILDREN Andrew Bonwit, M.D
RASH IN INFECTIOUS DISEASES OF CHILDREN Andrew Bonwit, M.D. Infectious Diseases Department of Pediatrics OBJECTIVES • Develop skills in observing and describing rashes • Recognize associations between rashes and serious diseases • Recognize rashes associated with benign conditions • Learn associations between rashes and contagious disease Descriptions • Rash • Petechiae • Exanthem • Purpura • Vesicle • Erythroderma • Bulla • Erythema • Macule • Enanthem • Papule • Eruption Period of infectivity in relation to presence of rash • VZV incubates 10 – 21 days (to 28 d if VZIG is given • Contagious from 24 - 48° before rash to crusting of all lesions • Fifth disease (parvovirus B19 infection): clinical illness & contagiousness pre-rash • Rash follows appearance of IgG; no longer contagious when rash appears • Measles incubates 7 – 10 days • Contagious from 7 – 10 days post exposure, or 1 – 2 d pre-Sx, 3 – 5 d pre- rash; to 4th day after onset of rash Associated changes in integument • Enanthems • Measles, varicella, group A streptoccus • Mucosal hyperemia • Toxin-mediated bacterial infections • Conjunctivitis/conjunctival injection • Measles, adenovirus, Kawasaki disease, SJS, toxin-mediated bacterial disease Pathophysiology of rash: epidermal disruption • Vesicles: epidermal, clear fluid, < 5 mm • Varicella • HSV • Contact dermatitis • Bullae: epidermal, serous/seropurulent, > 5 mm • Bullous impetigo • Neonatal HSV • Bullous pemphigoid • Burns • Contact dermatitis • Stevens Johnson syndrome, Toxic Epidermal Necrolysis Bacterial causes of rash