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NARMS – EB 2000 Veterinary Isolates Fig. 18. Resistance Among Salmonella Serotypes for Isolates from Cattle*
NARMS – EB 2000 Veterinary Isolates Fig. 18. Resistance Among Salmonella Serotypes for Isolates from Cattle* S. typhimurium (n=332)** S. montevideo (n=330) Amikacin 0.00% Amikacin 0.00% Amox-Clav 14.46% Amox-Clav 0.61% Ampicillin 66.87% Ampicillin 0.61% Apramycin 1.20% Apramycin 0.00% Cefoxitin 10.54% Cefoxitin 0.61% Ceftiofur 12.65% Ceftiofur 0.61% Ceftriaxone 0.00% Ceftriaxone 0.00% Cephalothin 13.25% Cephalothin 0.61% Chloramphenicol 39.46% Chloramphenicol 0.91% Ciprofloxacin 0.00% Ciprofloxacin 0.00% Gentamicin 3.31% Gentamicin 0.30% Kanamycin 38.86% Kanamycin 0.00% Nalidixic Acid 0.00% Nalidixic Acid 0.00% Streptomycin 66.57% Streptomycin 1.52% Sulfamethoxazole 66.87% Sulfamethoxazole 1.21% Tetracycline 66.57% Tetracycline 2.12% Trimeth-Sulfa 5.42% Trimeth-Sulfa 0.30% 0% 10% 20% 30% 40% 50% 60% 70% 80% 0% 1% 1% 2% 2% 3% **including copenhagen S. anatum (n=292) S. newport (n=185) Amikacin 0.00% Amikacin 0.00% Amox-Clav 1.71% Amox-Clav 80.00% Ampicillin 2.40% Ampicillin 80.54% Apramycin 0.00% Apramycin 0.00% Cefoxitin 1.37% Cefoxitin 77.84% Ceftiofur 1.37% Ceftiofur 80.00% Ceftriaxone 0.00% Ceftriaxone 2.16% Cephalothin 2.05% Cephalothin 77.84% Chloramphenicol 1.71% Chloramphenicol 81.62% Ciprofloxacin 0.00% Ciprofloxacin 0.00% Gentamicin 0.68% Gentamicin 7.57% Kanamycin 1.71% Kanamycin 7.57% Nalidixic Acid 0.34% Nalidixic Acid 0.00% Streptomycin 2.05% Streptomycin 82.70% Sulfamethoxazole 2.05% Sulfamethoxazole 74.05% Tetracycline 35.96% Tetracycline 83.24% Trimeth-Sulfa 0.34% Trimeth-Sulfa 25.41% 0% 5% 10% 15% 20% 25% 30% 35% 40% 0% 10% 20% 30% 40% 50% 60% 70% 80% 90% *all sources NARMS – EB 2000 Veterinary Isolates Fig. -
Bøgsted, Bent (DF)
Bøgsted, Bent (DF) Member of the Folketing, The Danish People's Party Semiskilled worker Bakkevænget 2 9750 Østervrå Parliamentary phone: +45 3337 5101 Mobile phone: +45 6162 3360 Email: [email protected] Bent Gunnar Bøgsted, born January 4th 1956 in Brønderslev, Serritslev Parish, son of former farmer Mandrup Verner Bøgsted and Kirsten Margrete Bøgsted. Married to Hanne Bøgsted. The couple has seven children. Member period Member of the Folketing for The Danish People's Party in North Jutland greater constituency from November 13th 2007. Member of the Folketing for The Danish People's Party in North Jutland County constituency, 20. November 2001 – 13. November 2007. Candidate for The Danish People's Party in Frederikshavn nomination district from 2010. Candidate for The Danish People's Party in Brønderslev nomination district, 20072010. Candidate for The Danish People's Party in Fjerritslev nomination district, 20042007. Candidate for The Danish People's Party in Aalborg East nomination district, 20042007. Candidate for The Danish People's Party in Hobro nomination district, 20012004. Parliamentary career Chairman of the Employment Committee, 20152019. Clerk of Parliament from 2007. Spokesman on labour market from 2001. Spokesman on the Home Guard and social dumping. Education Aaalborg Technical School, 19721976. Skolegade School, Brønderslev, 19701972. Serritslev School, Brønderslev, 19631970. Employment Semiskilled worker at Repsol, Brønderslev, 19932001. Shipyard worker, Ørskov Stålskibsværft, 19901993. Farmer, 19861989. Armourer with the North Jutland Artillery Regiment, Skive, 19771986. Avedøre Recruit and NCO School, 19761977. Engineering worker at Uggerby Maskinfabrik, Brønderslev, 19721976. -
Colourmanager
Table 8 Meteorological conditions. Precipitation, sunshine hours, etc. 2000 Jan. Feb. Mar. Apr. May Jun. Jul. Aug. Sep. Oct. Nov. Dec. Year total Precipitation mm Normal (1961-1990) 57 38 46 41 48 55 66 67 73 76 79 66 712 All Denmark 59 74 61 42 51 55 43 49 74 96 93 71 768 Cph Municipality, Frb.Municipality, Cph. 41 41 73 35 29 58 44 48 84 60 50 49 701 County, Fr.borg County, and Roskilde County West Zealand County 39 45 63 45 30 44 27 33 71 59 56 54 566 Storstrøm County 44 56 50 29 40 46 29 23 62 47 55 45 526 Bornholm County 42 52 56 26 34 74 33 27 59 47 74 38 562 Funen County 48 63 57 47 31 44 30 45 63 70 59 49 606 South Jutland County 67 79 73 47 55 53 41 55 56 110 97 66 799 Ribe County 60 82 61 37 59 43 43 40 69 114 150 70 828 Vejle County 57 78 57 39 49 50 43 52 65 99 81 70 740 Ringkøbing County 81 106 55 33 67 53 52 76 91 136 152 92 994 Aarhus County 41 54 66 42 58 61 51 50 96 79 77 65 740 Viborg County 81 102 55 41 68 54 46 53 80 122 111 91 904 North Jutland County 60 74 53 60 58 75 49 47 68 119 92 84 839 per cent Relative humidity, all Denmark1 Normal (1961-1990) 91 90 87 80 75 77 79 79 83 87 89 90 84 2000 90 91 86 85 77 82 85 83 85 91 93 92 87 Cloud cover, all Den- mark2 Normal (1961-1990) 79 73 69 63 60 59 62 59 63 70 74 77 67 2000 72 72 71 69 45 67 72 63 65 73 77 75 69 hours Bright sunshine, all Den- mark3 Normal (1961-1990) 41 71 117 178 240 249 236 224 152 99 57 39 1 701 2000 64 73 121 162 318 230 200 218 152 86 48 38 1 710 HPa Mean air pressure (sea level) Aalborg 1 012.7 1 007.9 1 012.5 1 009.6 1 014.8 1 014.3 1 008.5 1 -
A Sensitive Method for Direct Analysis of Impurities in Apramycin and Other Aminoglycoside Antibiotics Using Charged Aerosol
- SO4 A Sensitive Method for Direct Analysis of Impurities in Apramycin and Other Aminoglycoside Antibiotics Using Charged Aerosol Detection Zhen Long1, Qi Zhang2, Yan Jin1, Lina Liang1, Bruce Bailey2, Ian Acworth2, Deepali Mohindra3 1 2 3 Thermo Fisher Scientific, Shanghai, China, Thermo Fisher Scientific, Chelmsford, MA, USA and Thermo Fisher Scientific, Sunnyvale, CA, USA Comparison of CAD and ELSD Detection Analysis of Other Aminoglycoside Antibiotics Overview Results Purpose: To develop a sensitive non-derivatization method for impurity assessment of Sample pre-treatment with SPE This method has also been applied to impurity analysis of an additional eleven apramycin sulfate and other aminoglycoside antibiotics. Sample pre-treatment with SPE SPE Column: Dionex OnGuard II A CAD and ELSD are both nebulization-based universal detection technologies. aminoglycoside antibiotics, including neomycin, gentamicin, kanamycin, streptomycin, Comparison between CAD and ELSD under the same chromatographic conditions tobramycin, amikacin, etimicin, netilmicin, sisomicin, ribostamycin and paromomycin. Methods: A 30min gradient method using hydrophilic interaction liquid chromatography Sample solvent: 80% 5mM ammonium formate, 20% acetonitrile Sulfate is a major interference for apramycin impurity assessment with a HILIC method. demonstrated that CAD is much more sensitive than ELSD. As shown in the Figure 5 shows impurity analysis of kenamycin, etimicin, ribostamycin and paromomycin with charged aerosol detection (HILIC-CAD) was developed for direct analysis of Sample: 220.6 mg/mL in 2 mL sample solvent Without sample cleanup, some early eluting impurities were found to be masked under chromatograms in Figure 4 and data summarized in Table 1, 16 impurities (S/N >3) were using the HILIC-CAD method. -
High Level Aminoglycoside Resistance in Enterococcus, Pediococcus and Lactobacillus Species from Farm Animals and Commercial Meat Products
Ann Microbiol (2016) 66:101–110 DOI 10.1007/s13213-015-1086-1 ORIGINAL ARTICLE High level aminoglycoside resistance in Enterococcus, Pediococcus and Lactobacillus species from farm animals and commercial meat products George Jaimee1 & Prakash M. Halami1 Received: 10 September 2014 /Accepted: 8 April 2015 /Published online: 2 May 2015 # Springer-Verlag Berlin Heidelberg and the University of Milan 2015 Abstract Inappropriate use of aminoglycosides in animal I40a suggesting its involvement in antibiotic resistant gene husbandry has led to the selection and emergence of high- transfer. Besides, strains of L. plantarum, a species used as level aminoglycoside resistance (HLAR) in lactic acid bacte- probiotic, isolated in this study showed the occurrence of ria (LAB). The objective of this study was to assess the pres- aph(3′)IIIa as well as aac (6′)Ie-aph(2″)Ia genes that could ence of aminoglycoside resistant LAB in farm animals and be of concern in human health. The findings of the study meat products. Gentamicin resistant LAB (n=138) were se- highlight the spread and emergence of multi-resistance genes lectively isolated from 50 different meat and farm animal for aminoglycoside antibiotics among beneficial LAB. sources. These native isolates of LAB were subsequently characterized for their minimum inhibitory concentration to Keywords Lactic acid bacteria . Minimum inhibitory seven different aminoglycoside antibiotics. HLAR to genta- concentration . Aminoglycoside . Random amplified micin, kanamycin and streptomycin was found to be 38 %, polymorphic DNA . Integrase 45 % and 15 %, respectively. Selected cultures of LAB were identified by random amplified polymorphic DNA (RAPD)-PCR and 16S rDNA gene sequencing. Subsequent Introduction detection for the presence of nine aminoglycoside modifying genes [aac(6′)Ie-aph(2″)Ia, aph(3′)IIIa, aad6, ant(6)Ia, The spread of resistance to antibiotics among bacteria is ant(9)Ia, ant(9)Ib, aph(2″)Ib, aph(2″)Ic and aph(2″)Id] was alarming. -
The Danish Design Industry Annual Mapping 2005
The Danish Design Industry Annual Mapping 2005 Copenhagen Business School May 2005 Please refer to this report as: ʺA Mapping of the Danish Design Industryʺ published by IMAGINE.. Creative Industries Research at Copenhagen Business School. CBS, May 2005 A Mapping of the Danish Design Industry Copenhagen Business School · May 2005 Preface The present report is part of a series of mappings of Danish creative industries. It has been conducted by staff of the international research network, the Danish Research Unit for Industrial Dynamics, (www.druid.dk), as part of the activities of IMAGINE.. Creative Industries Research at the Copenhagen Business School (www.cbs.dk/imagine). In order to assess the future potential as well as problems of the industries, a series of workshops was held in November 2004 with key representatives from the creative industries covered. We wish to thank all those who gave generously of their time when preparing this report. Special thanks go to Nicolai Sebastian Richter‐Friis, Architect, Lundgaard & Tranberg; Lise Vejse Klint, Chairman of the Board, Danish Designers; Steinar Amland, Director, Danish Designers; Jan Chul Hansen, Designer, Samsøe & Samsøe; and Tom Rossau, Director and Designer, Ichinen. Numerous issues were discussed including, among others, market opportunities, new technologies, and significant current barriers to growth. Special emphasis was placed on identifying bottlenecks related to finance and capital markets, education and skill endowments, labour market dynamics, organizational arrangements and inter‐firm interactions. The first version of the report was drafted by Tina Brandt Husman and Mark Lorenzen, the Danish Research Unit for Industrial Dynamics (DRUID) and Department of Industrial Economics and Strategy, Copenhagen Business School, during the autumn of 2004 and finalized for publication by Julie Vig Albertsen, who has done sterling work as project leader for the entire mapping project. -
Use of Antimicrobials in Swine Feeds in the United States Catherine E
Dewey CE, Cox BD, Straw BE, et al. Use of antimicrobials in swine feeds in the United ORIGINAL RESEARCH States. Swine Health Prod. 1999;7(1):19–25. Use of antimicrobials in swine feeds in the United States Catherine E. Dewey, DVM, PhD; Barbara D. Cox, MS; Barbara E. Straw, DVM, PhD; Eric J. Bush, DVM, MS; Scott Hurd, DVM, PhD combinations of antimicrobials. Creep, starter, and first-stage Summary grower pigs were more likely to be fed antimicrobials than sec- ond-stage growers, finishers, or adult swine (P=.02). Most (92.2%) Objective: To describe the use of in-feed antimicrobials by stage antimicrobials were fed on a continuous basis. The age groups of production in the United States swine industry. most likely to be fed antimicrobials to treat specific problems Methods: National Swine Survey data from 712 farms were col- were nursery, grower, and finisher pigs. The most commonly used lected by the National Animal Health Monitoring System antimicrobials, listed in order of frequency were: tetracyclines, (NAHMS) between 1989 and 1991. Specifically, producers were carbadox, bacitracin, tylosin, apramycin, and lincomycin. asked to record over one 7-day interval the number of feeds they Carbadox, apramycin, and lincomycin were typically added to used, the phases of production to which those feeds were fed, creep and starter feeds. Bacitracin and tylosin were most often and which antimicrobials had been added to the feeds. Produc- used in feeds for grower and finisher pigs. Tetracyclines were fed ers were also asked whether the antimicrobials were used con- to all ages of pigs but were included more frequently in feeds for tinuously or to treat a specific problem. -
Medcom IV Status, Plans and Projects
MedCom – the Danish Healthcare Data Network / Dec. 2003 / MC-S177 MedComMedCom IV IV Status,Status, plans plans andand projectsprojects Healthcare Healthcare portal DIX Local County authority Internet Pharmacy Dan Net network Doctors’ KMD systems network KPLL Primary sector Medical Nursing Home Specia- practice homes care lists c. 13% Other hospitals c. 10% Clinical service Clinical Other c. 40% treatment clinical treatment unit units EPR c. 23% Other service c. 13% HOSPITAL Administration c. 4% ● Internet strategy ● Local authorities and healthcare communication ● Hospitals and healthcare communication ● International activities 2 MedCom IV – status, plans and projects Contents Aims of MedCom 2 The local authorities and healthcare communication 20 Introduction 3 The Hospital-Local Authority XML project 20 Healthcare on the move 3 The Hospital-Local Authority project and Common Language 22 History 4 Commentary: The Minister of Social Affairs, Henriette Kjær 22 The MedCom steering group 6 The LÆ form project 23 Commentary: The Minister of the Interior and Commentary: The Chairman of the National Health, Lars Løkke Rasmussen 7 Association of Local Authorities, Perspective: MedCom certifies communication 8 Ejgil W. Rasmussen 24 Perspective: The IT Lighthouse’s local authority- The Internet strategy 9 medical practice communication 24 The infrastructure project 9 The hospitals and Commentary: The Chairman of the Association of healthcare communication 25 County Councils, Kristian Ebbensgaard 12 Perspective: The Internet strategy and the From -
Direct Genetic and Enzymatic Evidence for Oxidative Cyclization in Hygromycin B Biosynthesis
Articles Cite This: ACS Chem. Biol. 2018, 13, 2203−2210 Direct Genetic and Enzymatic Evidence for Oxidative Cyclization in Hygromycin B Biosynthesis † † Sicong Li, Jun Zhang, Yuanzhen Liu, Guo Sun, Zixin Deng, and Yuhui Sun* Key Laboratory of Combinatorial Biosynthesis and Drug Discovery (Wuhan University), Ministry of Education and Wuhan University School of Pharmaceutical Sciences, Wuhan 430071, People’s Republic of China *S Supporting Information ABSTRACT: Hygromycin B is an aminoglycoside antibiotic with a structurally distinctive orthoester linkage. Despite its long history of use in industry and in the laboratory, its biosynthesis remains poorly understood. We show here, by in-frame gene deletion in vivo and detailed enzyme characterization in vitro, that formation of the unique orthoester moiety is catalyzed by the α-ketoglutarate- and non-heme iron-dependent oxygenase HygX. In addition, we identify HygF as a glycosyltransferase adding UDP-hexose to 2-deoxystreptamine, HygM as a methyltransferase responsible for N-3 methylation, and HygK as an epimerase. These experimental results and bioinformatic analyses allow a detailed pathway for hygromycin B biosynthesis to be proposed, including the key oxidative cyclization reactions. ygromycin B is an aminoglycoside antibiotic produced epoxidation,20 desaturation,21 and halogenation22 via radical H by Streptomyces hygroscopicus.1 Since its discovery in the intermediates,17 are responsible for the formation of the 1950s, it has become widely used as a veterinary drug to orthoester linkage. However, no authentic uncyclized precursor control infections of intestinal parasites in chickens and swine. of orthoesters has been isolated so far, and no direct In biological studies, hygromycin B also serves as a useful biochemical evidence for their function has been presented. -
Third ESVAC Report
Sales of veterinary antimicrobial agents in 25 EU/EEA countries in 2011 Third ESVAC report An agency of the European Union The mission of the European Medicines Agency is to foster scientific excellence in the evaluation and supervision of medicines, for the benefit of public and animal health. Legal role Guiding principles The European Medicines Agency is the European Union • We are strongly committed to public and animal (EU) body responsible for coordinating the existing health. scientific resources put at its disposal by Member States • We make independent recommendations based on for the evaluation, supervision and pharmacovigilance scientific evidence, using state-of-the-art knowledge of medicinal products. and expertise in our field. • We support research and innovation to stimulate the The Agency provides the Member States and the development of better medicines. institutions of the EU the best-possible scientific advice on any question relating to the evaluation of the quality, • We value the contribution of our partners and stake- safety and efficacy of medicinal products for human or holders to our work. veterinary use referred to it in accordance with the • We assure continual improvement of our processes provisions of EU legislation relating to medicinal prod- and procedures, in accordance with recognised quality ucts. standards. • We adhere to high standards of professional and Principal activities personal integrity. Working with the Member States and the European • We communicate in an open, transparent manner Commission as partners in a European medicines with all of our partners, stakeholders and colleagues. network, the European Medicines Agency: • We promote the well-being, motivation and ongoing professional development of every member of the • provides independent, science-based recommenda- Agency. -
Danmap 2006.Pmd
DANMAP 2006 DANMAP 2006 DANMAP 2006 - Use of antimicrobial agents and occurrence of antimicrobial resistance in bacteria from food animals, foods and humans in Denmark Statens Serum Institut Danish Veterinary and Food Administration Danish Medicines Agency National Veterinary Institute, Technical University of Denmark National Food Institute, Technical University of Denmark Editors: Hanne-Dorthe Emborg Danish Zoonosis Centre National Food Institute, Technical University of Denmark Mørkhøj Bygade 19 Contents DK - 2860 Søborg Anette M. Hammerum National Center for Antimicrobials and Contributors to the 2006 Infection Control DANMAP Report 4 Statens Serum Institut Artillerivej 5 DK - 2300 Copenhagen Introduction 6 DANMAP board: National Food Institute, Acknowledgements 6 Technical University of Denmark: Ole E. Heuer Frank Aarestrup List of abbreviations 7 National Veterinary Institute, Tecnical University of Denmark: Sammendrag 9 Flemming Bager Danish Veterinary and Food Administration: Summary 12 Justin C. Ajufo Annette Cleveland Nielsen Statens Serum Institut: Demographic data 15 Dominique L. Monnet Niels Frimodt-Møller Anette M. Hammerum Antimicrobial consumption 17 Danish Medicines Agency: Consumption in animals 17 Jan Poulsen Consumption in humans 24 Layout: Susanne Carlsson Danish Zoonosis Centre Resistance in zoonotic bacteria 33 Printing: Schultz Grafisk A/S DANMAP 2006 - September 2007 Salmonella 33 ISSN 1600-2032 Campylobacter 43 Text and tables may be cited and reprinted only with reference to this report. Resistance in indicator bacteria 47 Reprints can be ordered from: Enterococci 47 National Food Institute Escherichia coli 58 Danish Zoonosis Centre Tecnical University of Denmark Mørkhøj Bygade 19 DK - 2860 Søborg Resistance in bacteria from Phone: +45 7234 - 7084 diagnostic submissions 65 Fax: +45 7234 - 7028 E. -
Education for Members and Chairmen of Boards of Directors, 1997. • Ph.D. (The Contemporary Society with Mixed Economy), Roskilde University, Denmark, 1989
John Storm Pedersen Department of Sociology, Environmental and Business Economics The Sociology Research Group Postal address: Niels Bohrs Vej 9 6700 Esbjerg Denmark Email: [email protected] Phone: 65504139 CV Education • LD´s (Lønmodtagernes Dyrtidsfond) education for members and chairmen of boards of directors, 1997. • Ph.D. (The Contemporary Society with Mixed Economy), Roskilde University, Denmark, 1989. • M.A. in Public Administration, Roskilde University, Denmark, 1979. Relevant Professional Experiences 1. 2012 - Professor in management and organisation at Sociology. From January 2015, head of research group of Sociology. University of Southern Denmark, the Department of Environmental and Business Economics, Esbjerg. 2. 1986 - 2012 Associated Professor, Roskilde University, Denmark. From October 2008 Associated Professor MSK. During leaves from Roskilde University I have been manager in different positions. A. 2002 Temporary director of CVU East, Denmark (University College Eastern Denmark). on a short term contract. B. 1999 - 2001 Head of the Mayor’s Office; Mayor’s Department in Aalborg Municipal, Denmark As part of the job I: - represented Aalborg Municipality in various committees having the responsibility for the administration of EU Structural Funds promoting regional development. - had the responsibility to design, fund and implement EU projects within Aalborg Municipality. - had the responsibility for the lobby-office of North Denmark in Brussels. - represented Aalborg Municipality in various committees and boards promoting regional development in North Jutland involving all major actors in the region. C. 1994 – 1998 Director of West Zealand Business Development Centre, West Zealand County. As director of West Zealand Business Development Centre, the task was to create regional development on the basis of many different projects within business development, export, education, public-private cooperation etc.